Hoefer & Partner Patentanwälte mbB

Die Erfindung betrifft eine Zinkenanordnung (1) eines Bodenbearbeitungsgerätes (200), umfassend: einen Zinkenstiel (3), ausgebildet als gebogene Blattfeder, wobei ein oberes Zinkenstielende (31) zur Befestigung an einem Rahmen (201) des Bodenbearbeitungsgerätes (200) ausgebildet ist, ein Schar (4) an einem unteren Zinkenstielende (32), wobei das Schar (4) durch den Boden in einer Zugrichtung (2) ziehbar ist, wobei der Zinkenstiel (3) einen S-förmigen Abschnitt aufweist, der einen oberen Bogen (33) und einen unteren Bogen (34) bildet, wobei die konvexe Seite des oberen Bogens (33) und die konkave Seite des unteren Bogens (34) in Zugrichtung (2) zeigen, eine Zusatzfeder (5), ausgebildet als gebogene Blattfeder, wobei sich die Zusatzfeder (5) von einem oberen Zusatzfederende (51) bis zu einem unteren Zusatzfederende (52) erstreckt und an der konkaven Seite des oberen Bogens (33) parallel zumindest zu einem Abschnitt des oberen Bogens (33) verläuft, wobei die Zusatzfeder (5), insbesondere das untere Zusatzfederende (51), über eine Rückprallsicherungsanordnung (6) mit dem Zinkenstiel (3) gekoppelt ist.

The present disclosure relates to a manual air control device for a gas burner including a handle (110); a handle drive shaft (120) connected to the handle (110); a first moving block (130-1) and a second moving block (130-2) coupled to the handle drive shaft (120) at positions spaced apart from each other; a first horizontal frame (150-3) connecting the first moving block (130-1) and an upper door (160); and a second horizontal frame (150-4) connecting the second moving block (130-2) and a lower door (170). According to the operation of the handle (110), the first and second moving blocks (130-1, 130-2) move toward or away from each other, thereby adjusting an air passage channel formed between the upper door (160) and the lower door (170).

The invention concerns a multi-phase converter (1), comprising: a transformer device (2) with a primary side (3) with primary winding (4) and a secondary side (5) with secondary winding (6); a primary side circuit (7) connected to the primary winding (4); and a secondary side circuit (8) connected to the secondary winding (6); wherein the secondary side circuit (8) comprises a plurality of rectification legs (9) with rectification elements (10) and an output capacitor leg (11) with a plurality of output capacitors (12), the secondary winding (6) is connected in star configuration, and a star-point (13) of the secondary winding (6) is connected to a middle-point (14) of the plurality of output capacitors (12).

A Bluetooth, BT, communication system includes a first BT device (104_1) and a second BT device (104_2). The first BT device (104_1) generates and transmits a first packet segment. The second BT device (104_2) generates and transmits a second packet segment. The first packet segment and the second packet segment belong to a single BT packet.

The present invention provides a circuitry (100) including a TIA stage (120). The TIA stage (120) is configured to receive a current signal (Iin) to generate an output voltage signal (Vout), wherein the TIA stage (120) includes a first transistor (M2), a second transistor (M3) and a high-pass filter (124). A gate electrode of the first transistor (M2) is coupled to the current signal, and the first electrode of the transistor is coupled to a supply voltage. The second transistor (M3) has a gate electrode, a first electrode and a second electrode, wherein the first electrode of the second transistor is coupled to the second electrode of the first transistor, and the second electrode of the second transistor is coupled to a ground voltage. The high-pass filter (124) is configured to filter the current signal (Iin) to generate a filtered current signal to the gate electrode of the second transistor (M3).

A primitive adaptive variable rate shading method includes generating a first absolute difference of depths in x direction (S202), generating a second absolute difference of depths in y direction (S204), adding the first absolute difference with the second absolute difference to generate a third absolute difference (S206), and setting the variable shading rate according to at least the plurality of thresholds, and the third absolute difference (S208).

Methods, systems, and apparatuses are provided for reconfiguring artificial intelligence and machine learning functionalities in a wireless communication system, wherein a method of a User Equipment, UE, comprises receiving a first reconfiguration message from a Network, NW, (1022), and determining whether to report applicability information for at least one prediction configuration, among one or more prediction configurations, in a second message, to the NW, based on whether the UE is indicated to report for the at least one prediction configuration (1024).

The present invention provides a circuitry (100) including a regulator (110), a load circuit (120) and a signal processing circuit (130). The regulator (110) is configured to receive a supply voltage to generate a regulated supply voltage according to a reference voltage and a feedback signal. The load circuit (120) is supplied by the regulated supply voltage, wherein the load circuit (120) includes an internal sensing circuit to generate an internal sensing signal. The signal processing circuit (130) is configured to process the internal sensing signal to generate the feedback signal to the regulator.

A method of overlapping a plurality of image layers is provided. The image layers are received from an application (S100). Processing information is collected (S102). The processing information includes a first image format of an overlapped image output by a graphics processor and a dirty region of the image layers. It is determined whether to enable the local refresh function of the graphics processor (S104). An overlay process to be used for the image layers is set when it is determined to enable the local refresh function of the graphics processor (S106). The first image format of the overlapped image is changed to a second image format (S108). The data size of the second image format is less than that of the first image format. The overlay process is performed on the image layers to output the overlapped image with the second image format (S110). The dirty region of the overlapped image is refreshed (S112).

The present invention provides a wireless communication method, which includes the steps of: establishing a link with another device; and transmitting a Bluetooth packet to the another device, wherein the Bluetooth packet includes a preamble, a control header and a payload, and a bandwidth used for transmitting the preamble and the control header is different from a bandwidth used for transmitting the payload.