mhurhangee/patent-ind-claim-en huggingface dataset:
Transmission having a housing made from a metallic material, which is provided with cooling structures, wherein the cooling structures have cooling elements made from open-cell metal foam, which are secured on the housing , in particular on a housing outer surface, characterized in that an intermediate layer containing silicone and thermally conductive particles is provided between the cooling elements and the housing .
Hybrid transmission for a motor vehicle equipped with a heat engine and an electric traction machine offset on the same line, comprising two concentric primary shafts connected respectively to the heat engine and to the electric machine without a disconnect clutch, a secondary shaft connected to the vehicle wheels by a differential , and a shaft for transferring motion from a primary shaft to the secondary shaft and for coupling the primary shafts , the hybrid transmission comprising only three idle gears associated with the heat engine, the first two of which rotate around the primary shaft connected to the heat engine and the third of which rotates around the transfer shaft , and at least one fixed primary gear on the primary shaft connected to the electric traction machine , the transmission comprising a secondary electric machine of which the output shaft descends to the transfer shaft so as to be able to combine its torque with that of the heat engine and the power traveling from the heat engine to the secondary electric machine in both directions,via a triple gear set between the primary shaft connected to the heat engine, an intermediate shaft radially offset from the transfer shaft and the shaft of the secondary machine , the triple gear set comprising a fixed primary gear fitted on the primary shaft connected to the heat engine , the fixed primary gear meshing with a gear on the intermediate shaft , which is coupled to a gear on the shaft of the secondary machine .
Mulching apparatus for processing plant stubble in a field, in particular for attaching to a harvesting header , comprising a mount , which is connected to a shaft and can be set in rotary motion by the shaft , two tools , which are attached to the mount diametrically opposite one another and are mounted on the mount so as to swing freely by means of pendulum bearings having pendulum pins running parallel to the axis of rotation of the shaft , and also means for limiting the pendulum angle, which arises as a result of the centrifugal force when the shaft is rotating, of the tools in the direction of rotation of the shaft to a maximum angle, said means being configured to limit the maximum angle, which is assumed due to the centrifugal force when the shaft is rotating, of the tools into a trailing position in relation to an exactly radial alignment of the tools , wherein the means for limiting the pendulum angle of the tools comprise regions of the tools that interact when the shaft is rotating, wherein the tools comprise a distal part , which extends outwards from the pendulum bearing in the position assumed by the tools when the shaft is rotating, and a proximal part , which extends inwards from the pendulum bearing in the position assumed by the tools when the shaft is rotating, and wherein the interacting regions are provided on the proximal parts , characterized in that the interacting regions comprise a hook , which interacts with the proximal part of the respective other tool , and in that the hook in each case bears against a surface of the other tool , said surface being located between the inner end of the proximal part and the pendulum bearing .
A method for wireless communication, comprising: transmitting , by a network device, a Synchronization Signal Block, SSB, to a terminal device, the SSB comprising Primary Synchronization Signal, PSS, Secondary Synchronization Signal, SSS, and Physical Broadcasting Channel, PBCH; wherein the SSB comprises four consecutive symbols in time domain, which are symbol S0, symbol S1, symbol S2 and symbol S3 in sequence; and the PSS is transmitted on the symbol S0, the SSS is transmitted on the symbol S2, the PBCH is transmitted on three symbols which are the symbol S1, the symbol S2 and the symbol S3 and the PBCH is not transmitted on the symbol S0; wherein a frequency range of the PSS is a first bandwidth and a frequency range of the SSS is the first bandwidth; a frequency range of the PBCH transmitted on the symbol S1 is a second bandwidth, a frequency range of the PBCH transmitted on the symbol S3 is the second bandwidth, and a frequency range of the PBCH transmitted on the symbol S2 is a third bandwidth; wherein the first bandwidth does not overlap with the third bandwidth. transmitting , by a network device, a Synchronization Signal Block, SSB, to a terminal device, the SSB comprising Primary Synchronization Signal, PSS, Secondary Synchronization Signal, SSS, and Physical Broadcasting Channel, PBCH; wherein the SSB comprises four consecutive symbols in time domain, which are symbol S0, symbol S1, symbol S2 and symbol S3 in sequence; and the PSS is transmitted on the symbol S0, the SSS is transmitted on the symbol S2, the PBCH is transmitted on three symbols which are the symbol S1, the symbol S2 and the symbol S3 and the PBCH is not transmitted on the symbol S0; wherein a frequency range of the PSS is a first bandwidth and a frequency range of the SSS is the first bandwidth; a frequency range of the PBCH transmitted on the symbol S1 is a second bandwidth, a frequency range of the PBCH transmitted on the symbol S3 is the second bandwidth, and a frequency range of the PBCH transmitted on the symbol S2 is a third bandwidth; wherein the first bandwidth does not overlap with the third bandwidth.
A method of generating a loaded layout in a vacuum furnace corresponding to an actual layout in the vacuum furnace during operation of the vacuum furnace, the method comprising: receiving, via a processor, a visual data of the vacuum furnace from a camera , the visual data including a first image showing a first row of components and a second image showing a second row of components ; comparing, via the processor, the first image and the second image of the visual data to a predetermined maximum capacity layout for the vacuum furnace, the predetermined maximum capacity layout including X number of baskets (212; 214; 222; 224; 232) wide by Y number of baskets long by Z number of baskets high; and arranging, via the processor, the visual data into the loaded layout in response to comparing the visual data, wherein the loaded layout includes a two-dimensional image or a three-dimensional image, and wherein the loaded layout includes a placeholder image where a basket was missing in the actual layout in the vacuum furnace; and sending, via the processor, the loaded layout to a display device for at least one of traceability, root cause analysis, or quality investigations. receiving, via a processor, a visual data of the vacuum furnace from a camera , the visual data including a first image showing a first row of components and a second image showing a second row of components ; comparing, via the processor, the first image and the second image of the visual data to a predetermined maximum capacity layout for the vacuum furnace, the predetermined maximum capacity layout including X number of baskets (212; 214; 222; 224; 232) wide by Y number of baskets long by Z number of baskets high; and arranging, via the processor, the visual data into the loaded layout in response to comparing the visual data, wherein the loaded layout includes a two-dimensional image or a three-dimensional image, and wherein the loaded layout includes a placeholder image where a basket was missing in the actual layout in the vacuum furnace; and sending, via the processor, the loaded layout to a display device for at least one of traceability, root cause analysis, or quality investigations.
Robotic gripper for gripping, transporting and depositing transported goods , having the following features: a) the robotic gripper possesses a gripper base having a coupling device for attaching to a robotic arm ; and b) the robotic gripper possesses at least two fork units ; and c) the fork units possess in each case one fork prong , wherein the fork prongs in a longitudinal direction (Y) extend in a mutually parallel manner from the gripper base , and in terms of this longitudinal direction (Y) are provided to be locationally fixed in relation to the gripper base ; and d) bearing faces for the transported goods to directly bear thereon are provided on the fork prongs ; and e) the at least two fork prongs are displaceable in a height direction (Z) in an independent manner in relation to the gripper base ; and f) a slide having a compression face , which in the longitudinal direction (Y) points towards a distal end of the respective fork prong , is in each case provided on the at least two fork units so as to be above the respective fork prong in the height direction (Z); and g) the at least two slides in the longitudinal direction (Y) are displaceable in an independent manner, characterized by the following feature: h) each fork unit , above the bearing face , has a holding-down device which is displaceable in the height direction (Z) in relation to the fork prong and which possesses a holding-down device face that points in the direction of the fork prong , wherein the slide by means of a guide on the holding-down device that is aligned in the longitudinal direction (Y) is displaceable in a guided manner in the longitudinal direction (Y) such that the slide and the holding-down device face are conjointly displaceable in the height direction (Z), the holding-down device face in the longitudinal direction (Y) is disposed so as to be locationally fixed in relation to the gripper base , and the slide is displaceable in the longitudinal direction (Y) in relation to the holding-down device face. a) the robotic gripper possesses a gripper base having a coupling device for attaching to a robotic arm ; and b) the robotic gripper possesses at least two fork units ; and c) the fork units possess in each case one fork prong , wherein the fork prongs in a longitudinal direction (Y) extend in a mutually parallel manner from the gripper base , and in terms of this longitudinal direction (Y) are provided to be locationally fixed in relation to the gripper base ; and d) bearing faces for the transported goods to directly bear thereon are provided on the fork prongs ; and e) the at least two fork prongs are displaceable in a height direction (Z) in an independent manner in relation to the gripper base ; and f) a slide having a compression face , which in the longitudinal direction (Y) points towards a distal end of the respective fork prong , is in each case provided on the at least two fork units so as to be above the respective fork prong in the height direction (Z); and g) the at least two slides in the longitudinal direction (Y) are displaceable in an independent manner,
Device for grinding or milling grinding product, comprising a container for receiving the grinding product, and comprising a tool which is rotatable in the container about an axis of rotation (R) and is connected to a drive shaft , wherein the drive shaft is led out of the container through a passage opening in a base or a wall of the container , and wherein the device has a seal with which the passage opening is sealed, characterized in that the seal comprises a sealing ring surrounding the drive shaft and a cutting ring surrounding the drive shaft , wherein the sealing ring has an annular slot which is cut into the sealing ring with the cutting ring and in which the cutting ring is positioned at least after initial commissioning of the device .
A yaw brake for a wind turbine, comprising: a caliper body defining first and second jaws configured to be disposed on opposite sides of a brake disc disposed about a yaw axis , the caliper body defining a bore in one of the first and second jaws ; a brake pad configured for movement relative to the caliper body between a first position in which the brake pad applies a first braking force to the brake disc and a second position in which the brake pad applies a second braking force to the brake disc , the second braking force greater than the first braking force; and, a piston disposed within the bore of the caliper body and configured for movement within the bore along a first axis to cause movement of the brake pad between the first position and the second position and the piston includes a body defining a crown facing the brake pad , the body made from a first material; and, a deformable member configured for mounting on the body characterized in that the deformable member (70 or 84) is radially aligned with the crown (72 or 90) of the body (68 or 82) and not disposed between the crown (72 or 90) and the brake pad in the direction of the first axis (66 or 86), the deformable member is made from a second material having a lower hardness than the first material and configured to assume a first form when the brake pad is in the first position and a second form when the brake pad is in the second position, the deformable member defining an end face facing the brake pad and nearer to the brake pad than the crown when the brake pad is in the first position. a caliper body defining first and second jaws configured to be disposed on opposite sides of a brake disc disposed about a yaw axis , the caliper body defining a bore in one of the first and second jaws ; a brake pad configured for movement relative to the caliper body between a first position in which the brake pad applies a first braking force to the brake disc and a second position in which the brake pad applies a second braking force to the brake disc , the second braking force greater than the first braking force; and, a piston disposed within the bore of the caliper body and configured for movement within the bore along a first axis to cause movement of the brake pad between the first position and the second position and the piston includes a body defining a crown facing the brake pad , the body made from a first material; and, a deformable member configured for mounting on the body characterized in that the deformable member (70 or 84) is radially aligned with the crown (72 or 90) of the body (68 or 82) and not disposed between the crown (72 or 90) and the brake pad in the direction of the first axis (66 or 86), the deformable member is made from a second material having a lower hardness than the first material and configured to assume a first form when the brake pad is in the first position and a second form when the brake pad is in the second position, the deformable member defining an end face facing the brake pad and nearer to the brake pad than the crown when the brake pad is in the first position.
Coupling for interconnecting at least one amplifier unit with at least one antenna wherein the coupling comprises a housing that defines a main body of the coupling , wherein the coupling has a first interface that is standardized according to Electronic Industries Alliance with regard to the imperial system and a second interface that is standardized according to 13-30 DIN, wherein the first interface and the second interface are provided at the axial ends of the coupling that are opposite to each other, wherein the coupling is configured to transmit signals having a frequency up to 6 GHz at a power up to 2 kW, and wherein the coupling has venting openings that are in flow connection with a space that is vented.
A pump apparatus comprising a wastewater pump and a control device for a pump, the pump being a mechanically switched pump and capable of being operated in a forward and a reverse direction, the control device comprising: a monitoring mechanism to monitor the torque of the pump by measuring the current at which the pump is operating, a control mechanism to control the direction of the pump and being capable of selectively directing the pump to (i) stop (ii) operate in a reverse direction and (iii) operate in a forward direction ; wherein the control mechanism is adapted to control the pump to (a) stop and (b) operate in a reverse direction and direct the pump into a series of reverse and forward cycles of the pump when the monitoring mechanism detects the torque of the pump is above a pre-determined value, and wherein, whilst the number of pump cycles is less than or equal to a pre-defined maximum number of pump cycles , the control mechanism is further adapted to direct the pump into the series of reverse and forward cycles of the pump until the torque detected by the monitoring mechanism is below a further pre-determined value. a monitoring mechanism to monitor the torque of the pump by measuring the current at which the pump is operating, a control mechanism to control the direction of the pump and being capable of selectively directing the pump to (i) stop (ii) operate in a reverse direction and (iii) operate in a forward direction ; wherein the control mechanism is adapted to control the pump to (a) stop and (b) operate in a reverse direction and direct the pump into a series of reverse and forward cycles of the pump when the monitoring mechanism detects the torque of the pump is above a pre-determined value, and wherein, whilst the number of pump cycles is less than or equal to a pre-defined maximum number of pump cycles , the control mechanism is further adapted to direct the pump into the series of reverse and forward cycles of the pump until the torque detected by the monitoring mechanism is below a further pre-determined value.
A sewing machine comprising: a sewing needle, held by a needle bar, and moving up and down while holding an upper thread; a shuttle, configured to hold a bobbin around which a lower thread is wound and which is housed in a bobbin case, and cooperating with the sewing needle to form a seam; a presser foot member, configured to press a to-be-sewn article at a sewing position directly below the sewing needle; a pressure adjustment portion, adjusting pressure applied to the to-be-sewn article by the presser foot member; a feeding mechanism, wherein endless feeding belts for feeding the to-be-sewn article from the sewing position to a first direction are disposed on two sides of a second direction orthogonal to a first direction with respect to the sewing position, the feeding mechanism is provided with a belt drive portion, and the belt drive portion independently drives the feeding belt on one side of the second direction with respect to the sewing position and the feeding belt on another side of the second direction with respect to the sewing position; and the sewing machine being characterized by further comprising: a control portion, configured to control the pressure adjustment portion to make a pressure of the presser foot member be corresponding to a difference between a feeding amount of the feeding belts on one side of the second direction with respect to the sewing position and a feeding amount of the feeding belts on another side of the second direction with respect to the sewing position. a sewing needle, held by a needle bar, and moving up and down while holding an upper thread; a shuttle, configured to hold a bobbin around which a lower thread is wound and which is housed in a bobbin case, and cooperating with the sewing needle to form a seam; a presser foot member, configured to press a to-be-sewn article at a sewing position directly below the sewing needle; a pressure adjustment portion, adjusting pressure applied to the to-be-sewn article by the presser foot member; a feeding mechanism, wherein endless feeding belts for feeding the to-be-sewn article from the sewing position to a first direction are disposed on two sides of a second direction orthogonal to a first direction with respect to the sewing position, the feeding mechanism is provided with a belt drive portion, and the belt drive portion independently drives the feeding belt on one side of the second direction with respect to the sewing position and the feeding belt on another side of the second direction with respect to the sewing position; and the sewing machine being characterized by further comprising: a control portion, configured to control the pressure adjustment portion to make a pressure of the presser foot member be corresponding to a difference between a feeding amount of the feeding belts on one side of the second direction with respect to the sewing position and a feeding amount of the feeding belts on another side of the second direction with respect to the sewing position.
A method comprising: receiving , by a processor of a wearable electronic device , a first message indicative of an initiation of an event on a first device , wherein the first device is communicatively coupled to a second device and the second device is communicatively coupled to the wearable electronic device ; in response to receiving the first message indicating occurrence of the event on the first device , pausing , by the processor, an ongoing workflow operation executing on at least one of the second device and the wearable electronic device ; receiving , by the processor, a first disconnection request from the second device , wherein the first disconnection request is to terminate a first connection between the wearable electronic device and the second device ; in response to receiving the first disconnection request, sending , by the processor, a first connection request to the first device to communicatively couple the wearable electronic device with the first device ; receiving , by the processor, a second message indicative of completion of the event on the first device ; receiving , by the processor, a second disconnection request from the first device , wherein the second disconnection request is to terminate a second connection between the wearable electronic device and the first device ; sending , by the processor, a second connection request to communicatively couple the wearable electronic device to the second device ; and resuming the workflow operation on at least one of the second device and the wearable electronic device . receiving , by a processor of a wearable electronic device , a first message indicative of an initiation of an event on a first device , wherein the first device is communicatively coupled to a second device and the second device is communicatively coupled to the wearable electronic device ; in response to receiving the first message indicating occurrence of the event on the first device , pausing , by the processor, an ongoing workflow operation executing on at least one of the second device and the wearable electronic device ; receiving , by the processor, a first disconnection request from the second device , wherein the first disconnection request is to terminate a first connection between the wearable electronic device and the second device ; in response to receiving the first disconnection request, sending , by the processor, a first connection request to the first device to communicatively couple the wearable electronic device with the first device ; receiving , by the processor, a second message indicative of completion of the event on the first device ; receiving , by the processor, a second disconnection request from the first device , wherein the second disconnection request is to terminate a second connection between the wearable electronic device and the first device ; sending , by the processor, a second connection request to communicatively couple the wearable electronic device to the second device ; and resuming the workflow operation on at least one of the second device and the wearable electronic device .