KIPA AB

A cooking apparatus, comprising: a housing; a heating assembly, configured to heat food in the cooking cavity; a wireless communication module, configured to establish a wireless communication connection with a wireless temperature probe; a charging assembly, configured to couple with the wireless temperature probe; a power module, comprising an input terminal, a first power supply terminal, and a second power supply terminal, the input terminal of the power module is configured to connect to alternating current mains, and the power module is configured to transform the alternating current mains to obtain a first supply voltage and a second supply voltage; the first power supply terminal outputs the first supply voltage to supply power to the wireless communication module, and the second power supply terminal outputs the second supply voltage to the charging assembly, and charges the wireless temperature probe when the charging assembly is coupled with the wireless temperature probe.

A cooking device comprises: a main body, the main body comprising a cooking cavity for cooking food; a temperature measuring probe, the temperature measuring probe for inserting into the food to detect the temperature inside the food; and a probe box, the probe box for detachably mounting the temperature measuring probe; an outer surface of the main body being provided with a storage position, the main body comprising a coupling structure defined at the storage position, the coupling structure for detachably fixing the probe box to the main body; when the probe box is connected to the main body, at least a part of the probe box protrudes from the outer surface of the main body. The coupling structure may also be for detachably fixing the temperature measuring probe to the main body.

The cooking device comprises a cooking box, a storage box, and a temperature measuring probe. The cooking box comprises a box body, a cooking cavity opening and closing member, and a handle defined on the cooking cavity opening and closing member. The handle is configured to operate the opening and closing of the cooking cavity opening and closing member. The box body and the cooking cavity opening and closing member enclose a cooking cavity for cooking food. The temperature measuring probe is detachably mounted in the storage box to be removable for temperature measurement. After use, the temperature measuring probe can be re-stored on the handle, improving the problem of inconvenient storage existing in current cooking devices when using the temperature measuring probe to detect food temperature.

A gas composition comprising oxygen and/or ozone is provided for use in treatment to reduce inflammation in conditions characterized by dysregulated immune response, to preserve organ function in conditions characterized by dysregulated immune response, and to protect the endothelium or restore endothelial function in conditions characterized by dysregulated immune response. Said use of the gas composition comprising oxygen and/or ozone reduces one or more pro-inflammatory cytokines, thereby reducing inflammation.

A detachable outdoor mosquito repellent device is provided, relating to the technical field of mosquito repellent. The detachable outdoor mosquito repellent device includes: a mosquito repellent main body, a mosquito repellent tail portion is provided, the mosquito repellent tail portion is provided with a power input port and a locking clasp; a power supply unit, a power supply head portion is provided, the power supply head portion is provided with a locking opening and a power output port; the locking clasp is detachably engaged with the locking opening, and the power input port is configured to engage with the power output port; when the locking clasp engages with the locking opening, the power output port is connected to the power input port, and the power supply unit supplies power to the mosquito repellent main body through the power output port. Through the engagement between the locking clasp of the mosquito repellent tail portion and the locking opening of the power supply head portion, the power output port and the power input port are connected. The power supply unit supplies power to the mosquito repellent main body without requiring an external socket. Furthermore, a power supply main body and the mosquito repellent main body exhibit a high consistency, and the power supply unit is a detachable power supply device, which is convenient to carry and use.

The cooking device comprises a housing, a carrier, a first heating element, a second heating element, a fan, and a controller. The controller is electrically connected to the first heating element, the second heating element, and the fan. The cooking modes of the cooking device comprise a first cooking mode and a non-first cooking mode, the first cooking mode is at least configured for cooking pizza. Since the first rotational speed of the fan in the first cooking mode is not greater than the non-first rotational speed of the fan in the non-first cooking mode, the fan rotational speed in the first cooking mode is set to be slower. The slower rotational speed of the fan prevents the toppings composed of vegetables, fruits, and other ingredients on the upper surface of the pizza from drying out quickly, thereby maintaining good texture of the ingredients.

An air fryer and a cooking device, comprising a housing and a cooking pot body, the housing is configured to enclose and form a cooking cavity, and the cooking pot body is configured to carry food, the cooking pot body divides the cooking cavity into a first cooking area and a second cooking area; a first heating unit configured to heat the first cooking area to heat the food on the cooking pot body from the first cooking area; a second heating unit configured to heat the food on the cooking pot body from the second cooking area; a first driving circuit configured to drive the first heating unit to be in an on state or in an off state; a second driving circuit configured to drive the second heating unit to be in an on state or in an off state.

Disclosed is a panel kit for a blood purification device, including a power panel, a monitoring panel and a pipeline assembly. The power panel and the monitoring panel can be detachably mounted on a device housing of the blood purification device separately. The pipeline assembly is configured to connect a filter to a blood vessel of a patient and a medical liquid container respectively, and includes at least two pump pipeline sections mounted on the power panel, and when being adapted to a pump assembly of the blood purification device, the pump pipeline sections can be driven by the pump assembly to drive a blood or a medical liquid to flow. The pipeline assembly further includes at least two monitoring pipeline sections mounted on the monitoring panel. At least one monitoring pipeline section is fixedly provided with a first interface.

The application discloses a blood purification system and a blood purification device. The blood purification system includes a panel kit and a blood purification device, the panel kit includes a power component and a monitoring component, the power component includes a power panel and at least two pump pipeline sections, the monitoring component includes a monitoring panel and at least two monitoring pipeline sections, the monitoring pipeline sections are configured to monitor parameter information of a medical liquid and/or a blood, and at least one of the monitoring pipeline sections is provided with a first interface; the blood purification device includes a device housing, an assembly and disassembly component, a pump component and at least two second interfaces.

Disclosed is a computer-implemented method for profiling particles in a taxa using a sequence of input data images. The process involves identifying and categorizing suspended particles in each image to obtain bounding boxes and classification data. These particles are then tracked across subsequent images using the bounding boxes to compile tracking data. The method uses this data to output a profile of the suspended particles, incorporating taxonomic identification and possibly using convolutional operations. It employs two neural networks: one for identifying regions of interest and another for categorizing the particles based on these regions. The profile may include biomass calculations and assessments of ecosystem status, integrating sensor metadata such as depth, chlorophyll-a, salinity, and temperature. Non-particle elements like bubbles and damaged areas are excluded from tracking. The method also encompasses a system setup with a camera and processor, and a computer program that enables the execution of these methods.