mhurhangee/patent-ind-claim-en huggingface dataset:
Cutting system, wherein the cutting system is designed to extend in the direction of a first system axis extending horizontally along a width (B) of the cutting system , in the direction of a second system axis extending vertically to the first system axis , and in the direction of a third system axis extending along a depth (T) of the cutting system orthogonally to the first system axis and the second system axis , having a carrier , a tool (3; 4), received on the carrier , in the form of a multi-blade saw comprising a spindle shaft (13; 14), the working direction of said tool being in the direction of the first system axis , wherein the tool (3; 4) is driven by means of the spindle shaft (13; 14), and a further tool , received on the carrier , in the form of a chop saw comprising a further spindle shaft , the working direction of said further tool being in the direction of the first system axis , wherein the further tool is driven by means of the further spindle shaft , wherein the tools (3; 4; 5) are used to machine a blank, and wherein the tools (3; 4; 5) are arranged in series in the direction of the first system axis , and wherein the cutting system has a carrier element received movably on the carrier along the first system axis , wherein the carrier element is provided for holding the blank, and wherein the carrier element is rotatable about the second system axis , characterized in that the carrier element is also received movably on the carrier along the second system axis and in that the spindle shaft (13; 14) is designed to be orthogonal to the further spindle shaft . tools (3; 4; 5) are used to machine a blank, and wherein the tools (3; 4; 5) are arranged in series in the direction of the first system axis , and wherein the cutting system has a carrier element received movably on the carrier along the first system axis , wherein the carrier element is provided for holding the blank, and wherein the carrier element is rotatable about the second system axis , characterized in that the carrier element is also received movably on the carrier along the second system axis and in that the spindle shaft (13; 14) is designed to be orthogonal to the further spindle shaft .
A device for receiving vehicle objects, said device being obtained by additive production by melting on a powder bed and being made of a flexible material, said device comprising: - a base shaped to engage at least partially in a cup holder of the vehicle ; - an upper part formed on the lower part , the upper part being designed to receive and hold at least one object, the upper portion comprises a frame surrounding a central portion , the frame having a stiffness greater than a stiffness of the central portion , the central portion being configured to receive and hold the at least one article, characterized in that the upper portion has a fixed bottom separating the upper portion from the lower portion . - a base shaped to engage at least partially in a cup holder of the vehicle ; - an upper part formed on the lower part , the upper part being designed to receive and hold at least one object,
A press system comprising: a detection unit configured to detect a press load applied for pressing a workpiece (W); a reference waveform generation unit configured to generate a reference waveform for comparison, based on a load waveform of the press load detected by the detection unit ; and a determination unit configured to determine whether a press abnormality is present, based on the load waveform of the press load detected by the detection unit and the reference waveform, characterized in that the reference waveform generation unit is configured to generate, when the detection unit detects a same load waveform of the press load a plurality of times, the reference waveform based on the same load waveform. a detection unit configured to detect a press load applied for pressing a workpiece (W); a reference waveform generation unit configured to generate a reference waveform for comparison, based on a load waveform of the press load detected by the detection unit ; and a determination unit configured to determine whether a press abnormality is present, based on the load waveform of the press load detected by the detection unit and the reference waveform, characterized in that the reference waveform generation unit is configured to generate, when the detection unit detects a same load waveform of the press load a plurality of times, the reference waveform based on the same load waveform.
Power combiner for coupling high-frequency signals having a frequency of more than 1 MHz to an output power of more than 100 W, wherein the power combiner has the following: a) a first input (14a-d) for a first high-frequency signal; b) a second input (14a-d) for a second high-frequency signal; c) an output for connecting a consumer ; d) an earth terminal ; e) a first inductor (24a-d) connecting the first input (14a-d) to the output ; f) a second inductor (24a-d) connecting the second input (14a-d) to the output ; g) a combiner capacitor connecting the output to the earth terminal ; h) a first RC adapter (28, 28a-d) connecting the first input (14a-d) to the second input (14a-d), wherein the first inductor (24a-d) is magnetically decoupled from the second inductor (24a- d), wherein the power combiner is formed at least in part in a planar manner by a multilayer circuit board , wherein the power combiner has a first printed circuit board having a first electrically conductive layer (38a-d) and a first electrically insulating layer, wherein the first printed circuit board has the first RC adapter (28, 28a-d), wherein the power combiner is designed for coupling high-frequency signals between 1 MHz and 200 MHz, and wherein the inductors (24a-d) are arranged as planar inductors at a spacing from one another either in parallel planes or in the same plane and the outermost windings of the inductors (24a-d) are spaced apart by at least 1 cm. a) a first input (14a-d) for a first high-frequency signal; b) a second input (14a-d) for a second high-frequency signal; c) an output for connecting a consumer ; d) an earth terminal ; e) a first inductor (24a-d) connecting the first input (14a-d) to the output ; f) a second inductor (24a-d) connecting the second input (14a-d) to the output ; g) a combiner capacitor connecting the output to the earth terminal ; h) a first RC adapter (28, 28a-d) connecting the first input (14a-d) to the second input (14a-d), wherein the first inductor (24a-d) is magnetically decoupled from the second inductor (24a- d), wherein the power combiner is formed at least in part in a planar manner by a multilayer circuit board , wherein the power combiner has a first printed circuit board having a first electrically conductive layer (38a-d) and a first electrically insulating layer, wherein the first printed circuit board has the first RC adapter (28, 28a-d), wherein the power combiner is designed for coupling high-frequency signals between 1 MHz and 200 MHz, and wherein the inductors (24a-d) are arranged as planar inductors at a spacing from one another either in parallel planes or in the same plane and the outermost windings of the inductors (24a-d) are spaced apart by at least 1 cm.
A glazing unit comprising a glass substrate comprising a mineral glass sheet , said glass substrate comprising a through opening , characterized in that a reinforcing piece is bonded onto a main face of said glass substrate by means of a bonding track surrounding said opening, said bonding track being bonded onto the said main face by means of an adhesive having a thickness in the range from 0.1 to 5 mm.
An adaptor for providing access to an interior of a cannula , said cannula having two ends, a cannula lumen extending between said ends establishing an axial flow path (70, 70', 70"), and a side port extending at a right angle from said cannula having a side port channel providing access to said cannula lumen through a right angle, said adaptor comprising a shaft configured to protrude into the cannula lumen and to provide exterior access to said cannula lumen through an adaptor lumen in said shaft , said adaptor lumen being further configured to receive an intervention device inserted therein; said shaft of said adaptor lumen being a curved shaft or straight shafts having an angle, said adaptor lumen having a distal terminal opening configured to be exposed with said cannula lumen , said shaft being configured to modify an angle of insertion of said intervention device through said adaptor lumen thereby and to direct said intervention device within said cannula lumen through said right angle of said side port channel in a direction consistent with said axial flow path (70, 70', 70"). providing access to an interior of a cannula , said cannula having two ends, a cannula lumen extending between said ends establishing an axial flow path (70, 70', 70"), and a side port extending at a right angle from said cannula having a side port channel providing access to said cannula lumen through a right angle, said adaptor comprising a shaft configured to protrude into the cannula lumen and to provide exterior access to said cannula lumen through an adaptor lumen in said shaft , said adaptor lumen being further configured to receive an intervention device inserted therein; said shaft of said adaptor lumen being a curved shaft or straight shafts having an angle, said adaptor lumen having a distal terminal opening configured to be exposed with said cannula lumen , said shaft being configured to modify an angle of insertion of said intervention device through said adaptor lumen thereby and to direct said intervention device within said cannula lumen through said right angle of said side port channel in a direction consistent with said axial flow path (70, 70', 70").
An elafin polypeptide comprising the sequence of SEQ ID NO:1 or homologues, fragments or derivatives thereof, wherein said derivatives are polypeptides of SEQ ID NO:1 which are glycosylated, PEGylated, biotinylated, cyclized and/or oxidized, wherein the homologues are defined as having a sequence homology of more than 60 % compared to the polypeptide shown in SEQ ID NO: 1, and wherein the fragments, derivatives and homologues are defined as referring to those fragments, derivatives or homologues of the polypeptide of SEQ ID NO:1 which inhibit a release of troponins, for use in the prevention and/or treatment of disorders or diseases involving damage to a cardiac muscle, wherein these disorders or diseases are associated with cell damage and/or cell death leading to troponin I and/or troponin T release and/or with a rise in plasma troponin I and/or troponin T, and wherein the terminology "associated with cell damage leading to troponin I (or T) release and / or with a rise in plasma Troponin I (or T)" is defined to pertain to patients which have an elevated troponin (I or T) above 0.04 μg/l, wherein said rise in troponin I and/or troponin T is not associated with an increase in elastase activity.
A trash bag closing mechanism, comprising: a transmission assembly comprising a power unit and a scissor-hinge unit ; a closing assembly comprising a first guide plate arranged on the scissor-hinge unit and a second guide plate arranged opposite to the first guide plate ; and a heat sealing assembly arranged on the first guide plate and/or the second guide plate ) and used for heat sealing a closed trash bag ; wherein the power unit is used to drive the scissor-hinge unit to expand and contract, which consequently drives the first guide plate to slide toward the second guide plate to effect the closing and opening of the trash bag ; characterised in that : the power unit comprises a second motor and a first gear connected to the second motor ; the scissor-hinge unit comprises a fixing member , a guide groove arranged on the fixing member , a first rack received in the guide groove and meshed with the first gear , and a scissor hinge connected to the first rack ; and wherein the scissor hinge comprises 2 to 6 scissor sets, and the length of each scissor set increases along the direction away from the first rack . a transmission assembly comprising a power unit and a scissor-hinge unit ; a closing assembly comprising a first guide plate arranged on the scissor-hinge unit and a second guide plate arranged opposite to the first guide plate ; and a heat sealing assembly arranged on the first guide plate and/or the second guide plate ) and used for heat sealing a closed trash bag ; wherein the power unit is used to drive the scissor-hinge unit to expand and contract, which consequently drives the first guide plate to slide toward the second guide plate to effect the closing and opening of the trash bag ; characterised in that : the power unit comprises a second motor and a first gear connected to the second motor ; the scissor-hinge unit comprises a fixing member , a guide groove arranged on the fixing member , a first rack received in the guide groove and meshed with the first gear , and a scissor hinge connected to the first rack ; and wherein the scissor hinge comprises 2 to 6 scissor sets, and the length of each scissor set increases along the direction away from the first rack .
A parameter indication method, performed by a receiving device in a multiple input multiple output, MIMO, communication system , wherein the method comprises: generating indication information for each of a plurality of antenna panels of a transmit device, wherein the indication information is used to indicate an adjustment parameter of each of the anenna panels , and the adjustment parameter comprises at least one of an amplitude adjustment parameter and a phase adjustment parameter; and sending the indication information to the transmit device, wherein the adjustment parameter of each antenna panel is generated based on a result of comparison between channel information corresponding to the antenna panel and channel information corresponding to a reference antenna panel. generating indication information for each of a plurality of antenna panels of a transmit device, wherein the indication information is used to indicate an adjustment parameter of each of the anenna panels , and the adjustment parameter comprises at least one of an amplitude adjustment parameter and a phase adjustment parameter; and sending the indication information to the transmit device, wherein the adjustment parameter of each antenna panel is generated based on a result of comparison between channel information corresponding to the antenna panel and channel information corresponding to a reference antenna panel.
A laser positioning system comprising: a Light Detection and Ranging (LIDAR) device mounted to a hub ; and a plurality of retro-reflectors attached to a portion of an aircraft , the retro-reflectors being arranged so as to define a one-dimensional or two-dimensional array of retro-reflectors, the arrangement of the retro-reflectors in the array providing encoded information corresponding to the portion of the aircraft on which the reflectors are attached, wherein the Light Detection and Ranging device is configured : - to scan a field of view ; - to identify the plurality of retro-reflectors as corresponding to a particular portion of the aircraft based on the encoded information and - to calculate a distance between at least part of these retro-reflectors ; to determine relative position data based on this encoded information and the calculated distance between at least part of these retro-reflectors for monitoring integrity. a Light Detection and Ranging (LIDAR) device mounted to a hub ; and a plurality of retro-reflectors attached to a portion of an aircraft , the retro-reflectors being arranged so as to define a one-dimensional or two-dimensional array of retro-reflectors, the arrangement of the retro-reflectors in the array providing encoded information corresponding to the portion of the aircraft on which the reflectors are attached, wherein the Light Detection and Ranging device is configured : - to scan a field of view ; - to identify the plurality of retro-reflectors as corresponding to a particular portion of the aircraft based on the encoded information and - to calculate a distance between at least part of these retro-reflectors ; - to scan a field of view ; - to identify the plurality of retro-reflectors as corresponding to a particular portion of the aircraft based on the encoded information and - to calculate a distance between at least part of these retro-reflectors ; to determine relative position data based on this encoded information and the calculated distance between at least part of these retro-reflectors for monitoring integrity.
Method for producing a coated and printed glass pane , at least comprising the steps a) providing a glass substrate having a metal-containing coating on at least one first surface (3.1) and a polymeric protective layer arranged on this metal-containing coating , b) removing the temporary polymeric protective layer and the metal-containing coating only in a predetermined region , c) applying a ceramic ink only in the predetermined region , wherein step b) is carried out with a laser and the polymeric protective layer and the metal-containing coating are intact outside the predetermined region after step c), d) the glass pane is subjected to a temperature treatment at >600 °C, wherein the polymeric protective layer is removed on the entire first surface (3.1) and the ceramic ink is fired in the predetermined region , wherein the predetermined region extends along at least one edge of the glass pane and, measured from the pane edge , has a width b between 0.5 cm and 30 cm, preferably between 1 cm and 20 cm. a) providing a glass substrate having a metal-containing coating on at least one first surface (3.1) and a polymeric protective layer arranged on this metal-containing coating , b) removing the temporary polymeric protective layer and the metal-containing coating only in a predetermined region , c) applying a ceramic ink only in the predetermined region , wherein step b) is carried out with a laser and the polymeric protective layer and the metal-containing coating are intact outside the predetermined region after step c), d) the glass pane is subjected to a temperature treatment at >600 °C, wherein the polymeric protective layer is removed on the entire first surface (3.1) and the ceramic ink is fired in the predetermined region ,
A gimbal control method, the gimbal includes an axial arm and a motor , and the motor is configured to drive the axial arm to rotate, thereby driving a photographing device mounted on the gimbal to move in one or more directions, the method including: obtaining a working parameter of the gimbal; the method being characterized by further including: detecting that the working parameter matches a preset condition that a human force is applied to the gimbal; and according to a direction of the human force applied to the gimbal, controlling the motor to drive the axial arm to rotate to a target attitude at which the human force stops to be applied to the gimbal. obtaining a working parameter of the gimbal; the method being characterized by further including: detecting that the working parameter matches a preset condition that a human force is applied to the gimbal; and according to a direction of the human force applied to the gimbal, controlling the motor to drive the axial arm to rotate to a target attitude at which the human force stops to be applied to the gimbal.
Balloon catheter comprising a catheter line , an expandable balloon which is attached thereto and borders a balloon interior , and a connection device connected to the catheter line , which connection device has at least one first connector for supplying fluid, in particular air, for filling the balloon , at least one first channel extending in the catheter line , which channel is fluidically connected at the proximal longitudinal end thereof to the first connector , and is fluidically connected at the distal longitudinal end thereof to the balloon interior , the first channel having a first channel length portion and a second channel length portion connected to the first channel length portion in the distal direction by means of a transition , the catheter line being made of elastic material, at least along these channel length portions and along the transition , the balloon catheter having at least one first valve element which is in particular designed as a sphere and is inserted into the first channel , the area of the hollow cross section of the first channel in the second channel length portion , in particular when the relevant wall of the catheter line is relaxed, being smaller than the area of the hollow cross section of the first channel in the first channel length portion and smaller than the area of the cross section of the first valve element that is oriented perpendicularly to the longitudinal direction (L) of the catheter line , and the balloon catheter having a force transmission device , characterised in that , the force transmission device is fastened to the first valve element and extends from the first valve element in the proximal direction through the first channel and further through the connection device to a handle piece , the first valve element being moveable from the first channel length portion into the second channel length portion by means of a movement of the handle piece towards the connection device , with elastic expansion of the wall of the catheter line in said second channel length portion.
An electrostatic precipitator for removing a particulate material, comprising: a housing having an internally formed air path with an airflow (A) communicating between an inlet for drawing polluted air containing particulate material and an air outlet for emitting clean air purified by removing the particulate material; an air stream generating means that generates an air stream; a discharging means that charges the particulate material; a collection device provided in the air stream to collect the particulate material which has been charged by the discharging means , said collection device including a collection belt ; said collection belt being driven about an array of sprockets arranged on a shaft at either the top and/or the bottom of the device, where the axle of the shaft is substantially parallel with the direction of the air flow (A); characterized in that said collection belt comprises a flat wire belt defining a three-dimensional collection surface. a housing having an internally formed air path with an airflow (A) communicating between an inlet for drawing polluted air containing particulate material and an air outlet for emitting clean air purified by removing the particulate material; an air stream generating means that generates an air stream; a discharging means that charges the particulate material; a collection device provided in the air stream to collect the particulate material which has been charged by the discharging means , said collection device including a collection belt ; said collection belt being driven about an array of sprockets arranged on a shaft at either the top and/or the bottom of the device, where the axle of the shaft is substantially parallel with the direction of the air flow (A); characterized in that said collection belt comprises a flat wire belt defining a three-dimensional collection surface.