mhurhangee/patent-ind-claim-en huggingface dataset:
Method for shaping a rack for a steering gear of a motor vehicle, said rack having a toothed portion which has a toothing that extends along a longitudinal axis (L) and has a toothing width (b) measured transversely to the longitudinal axis (L), and a back which is opposite the toothing and in terms of the basic shape thereof is of a cylinder-segment shape and which has a back radius (R) and a back width; in which method a cylindrical blank having a blank radius (r) in a die which is divided in a separation plane (T) parallel to the longitudinal axis (L) is formed between a tooth die part , having a tooth mold clearance for shaping the toothing , and a back die part , having a back mold clearance which for shaping the back has a cylinder-segment basic shape having the back radius (R); wherein for forming the blank in an open position of the die is inserted between the tooth mold clearances and the back mold clearances , which are distanced from each other with respect to the separation plane (T), and the tooth die part and the back die part for closing the cavity in the closing direction are moved in one forging stroke to a closed position, wherein the back radius (R) of the back mold clearance is larger than the blank radius (r) of the blank , characterized in that the back width plus the toothing width (b) measured transversely to the longitudinal axis (L) is wider than double the blank radius (r) of the blank .
Use of a system in a scanning operation, wherein the system comprises at least two scan bodies and at least one connecting portion , wherein each scan body is configured as a reference for a scanner in the mouth region, and comprises a fastening device for fastening to an implant , a body extending longitudinally, the body being preferably at least essentially cylindrical, and at least one projection extending at least essentially at right angles to the body , wherein the projection does not extend over the entire length of the body , especially is disposed below a scan body upper edge, and/or is narrower than the body and wherein the connecting portion is configured for connecting the two scan bodies , wherein a first receptacle for receiving a portion of a first scan body and a second receptacle for receiving a portion of a second scan body are provided on the connecting portion . a fastening device for fastening to an implant , a body extending longitudinally, the body being preferably at least essentially cylindrical, and at least one projection extending at least essentially at right angles to the body , wherein the projection does not extend over the entire length of the body , especially is disposed below a scan body upper edge, and/or is narrower than the body
A method of generating a noise power estimate for a particular reference signal received on a particular subcarrier, from among a plurality of OFDM subcarriers, the method characterised by generating the noise power estimate as the absolute square of a difference divided by a constant factor, wherein: the difference is between i) an unfiltered channel estimate for the particular reference signal and ii) a filtered channel estimate for the particular reference signal; the filtered channel estimate for the particular reference signal is the sum of the products of i) unfiltered reference-signal channel estimates for a filter set of reference signals with ii) respective reference-signal coefficients from a filter set of reference-signal coefficients; the filter set includes the particular reference signal; the respective reference-signal coefficients sum to one; and the constant factor is equal to one minus the respective reference-signal coefficient for the particular reference signal. the difference is between i) an unfiltered channel estimate for the particular reference signal and ii) a filtered channel estimate for the particular reference signal; the filtered channel estimate for the particular reference signal is the sum of the products of i) unfiltered reference-signal channel estimates for a filter set of reference signals with ii) respective reference-signal coefficients from a filter set of reference-signal coefficients; the filter set includes the particular reference signal; the respective reference-signal coefficients sum to one; and the constant factor is equal to one minus the respective reference-signal coefficient for the particular reference signal.
Sensor assembly for activity monitoring of a living microorganism or living nano-organism comprising a sample receiver for receiving a volume of liquid, the volume being < 10 μl, comprising a 2D microscale motion detector , the motion detector comprising an inert suspended layer , wherein the suspended layer is 1-5 atoms thick, at least one support for the suspended layer, and a read-out system configured for measuring alteration of the suspended layer. a sample receiver for receiving a volume of liquid, the volume being < 10 μl, comprising a 2D microscale motion detector , the motion detector comprising an inert suspended layer , wherein the suspended layer is 1-5 atoms thick, at least one support for the suspended layer, and a read-out system configured for measuring alteration of the suspended layer.
A base station for use in a wireless network, the base station comprising: a transmitter configured to send, to a mobile station , two or more data bursts; wherein the transmitter is further configured to send, to the mobile station, an acknowledgment/negative acknowledgment, ACK/NAK, aggregation indicator, wherein the ACK/NAK aggregation indicator indicates to the mobile station a number of the two or more data bursts to be acknowledged or negatively acknowledged by the mobile station in an aggregated ACK/NAK report, wherein the number indicated by the ACK/NAK aggregation indicator is a number selected from a range of possible values; and a receiver configured to, subsequent to the transmission of the two or more data bursts, receive, from the mobile station: one or more aggregated ACK/NAK reports, wherein each of the one or more aggregated ACK/NAK reports indicates whether a number of the two or more data bursts was successfully received or not according to the number indicated by the ACK/NAK aggregation indicator. a transmitter configured to send, to a mobile station , two or more data bursts; wherein the transmitter is further configured to send, to the mobile station, an acknowledgment/negative acknowledgment, ACK/NAK, aggregation indicator, wherein the ACK/NAK aggregation indicator indicates to the mobile station a number of the two or more data bursts to be acknowledged or negatively acknowledged by the mobile station in an aggregated ACK/NAK report, wherein the number indicated by the ACK/NAK aggregation indicator is a number selected from a range of possible values; and a receiver configured to, subsequent to the transmission of the two or more data bursts, receive, from the mobile station: one or more aggregated ACK/NAK reports, wherein each of the one or more aggregated ACK/NAK reports indicates whether a number of the two or more data bursts was successfully received or not according to the number indicated by the ACK/NAK aggregation indicator.
An impeller comprising: a disk having a disk shape centered on an axis (O); a plurality of blades provided on a front surface of the disk facing a first side in an axial direction at intervals in a circumferential direction around the axis (O); and a cover that covers the plurality of blades from the first side and gradually expands in diameter from the first side toward a second side in the axial direction, wherein in the disk , a concave portion is formed on a back surface facing the second side in the axial direction, the concave portion being recessed toward the first side in the axial direction, wherein a position of a bottom of the concave portion in the axial direction is positioned on the first side in the axial direction with respect to a second end portion of the cover which is positioned on a most second side in the axial direction in the cover, wherein the bottom is formed on a most first side in the axial direction in the concave portion , and the impeller being characterised in that the cover has a thick portion at a position distant from a first end portion positioned closest to the first side, the thick portion having a thickness greater than a thickness of the first end portion, wherein in the axial direction, the thick portion is formed in a region (A) overlapping with the position of the bottom in the axial direction. a disk having a disk shape centered on an axis (O); a plurality of blades provided on a front surface of the disk facing a first side in an axial direction at intervals in a circumferential direction around the axis (O); and a cover that covers the plurality of blades from the first side and gradually expands in diameter from the first side toward a second side in the axial direction, wherein in the disk , a concave portion is formed on a back surface facing the second side in the axial direction, the concave portion being recessed toward the first side in the axial direction, wherein a position of a bottom of the concave portion in the axial direction is positioned on the first side in the axial direction with respect to a second end portion of the cover which is positioned on a most second side in the axial direction in the cover, wherein the bottom is formed on a most first side in the axial direction in the concave portion , and the impeller being characterised in that the cover has a thick portion at a position distant from a first end portion positioned closest to the first side, the thick portion having a thickness greater than a thickness of the first end portion, the impeller being characterised in that the cover has a thick portion at a position distant from a first end portion positioned closest to the first side, the thick portion having a thickness greater than a thickness of the first end portion, wherein in the axial direction, the thick portion is formed in a region (A) overlapping with the position of the bottom in the axial direction.
Use of an amorphous or microcrystalline copolyamide moulding compound, comprising at least one amorphous or microcrystalline copolyamide (A), said copolyamide (A) comprising at least the following monomers: (a) at least one cycloaliphatic diamine; (b) 0.25 to 30 mol% of at least one dimeric fatty acid wherein the fatty acid (b) comprises at least 28 carbon atoms; and (c) at least one aromatic dicarboxylic acid; where the proportions of all the monomers add up to 100 mol% and which has a glass transition temperature measured according to ISO 11357-2 and -3 of at least 155°C and a dielectric loss factor tan δ measured according to IEC 61189-2-271 of not more than 8.30 × 10 -3 for production of microwave-resistant mouldings wherein the microwave-resistant moulding is selected from the group of dishware, vessels, containers, dishes, pots, cups, beakers, plates, lids, sauce boats, flasks or covering trays, undertrays or serving trays. (a) at least one cycloaliphatic diamine; (b) 0.25 to 30 mol% of at least one dimeric fatty acid wherein the fatty acid (b) comprises at least 28 carbon atoms; and (c) at least one aromatic dicarboxylic acid; where the proportions of all the monomers add up to 100 mol% and
A multilayer film comprising: - a first layer and a second layer; wherein the first layer comprises a polyvinylidene fluoride (PVDF)/acrylate polymer blend, the second layer consists of a polycaprolactone-based thermoplastic polyurethane, and the first layer is bonded to a major surface of the second layer; and wherein a PVDF/acrylate polymer ratio by weight is from 50/50 to 95/5. - a first layer and a second layer; wherein the first layer comprises a polyvinylidene fluoride (PVDF)/acrylate polymer blend, the second layer consists of a polycaprolactone-based thermoplastic polyurethane, and the first layer is bonded to a major surface of the second layer; and wherein a PVDF/acrylate polymer ratio by weight is from 50/50 to 95/5. wherein the first layer comprises a polyvinylidene fluoride (PVDF)/acrylate polymer blend, the second layer consists of a polycaprolactone-based thermoplastic polyurethane, and the first layer is bonded to a major surface of the second layer; and wherein a PVDF/acrylate polymer ratio by weight is from 50/50 to 95/5.
A laser scanner including: - a housing having a window , - a light source for emitting a light beam , the window being transparent to the wavelength(s) of the light beam , - a scanning mirror rotatable about an axis of rotation (X) for deflection of the light beam toward a scanning area (SC) so that the light beam periodically sweeps a sweep surface, and for deflection of return light from objects or persons in the scanning area (SC) into a light collection path, - a motor for rotating the scanning mirror , - a photodetector element for generating an electric signal, arranged in said light collection path, wherein the sweep surface is a sweep plane and the motor , the light source , and the photodetector element are all housed within the housing , on a same side of the sweep plane, the same side being a same half-plane with respect to said sweep plane, the laser scanner being characterised by further comprising a reference subsystem comprising a reference light source for emitting a reference light beam over a reference emission path, at least one reference target that when illuminated by the reference light beam returns reference return light over a reference light collection path, and a reference photodetector element for generating a reference electric signal from the reference return light, wherein the at least one reference target is different from but co-rotates with the scanning mirror , so as to be periodically illuminated by the reference light beam . - a housing having a window , - a light source for emitting a light beam , the window being transparent to the wavelength(s) of the light beam , - a scanning mirror rotatable about an axis of rotation (X) for deflection of the light beam toward a scanning area (SC) so that the light beam periodically sweeps a sweep surface, and for deflection of return light from objects or persons in the scanning area (SC) into a light collection path, - a motor for rotating the scanning mirror , - a photodetector element for generating an electric signal, arranged in said light collection path, wherein the sweep surface is a sweep plane and the motor , the light source , and the photodetector element are all housed within the housing , on a same side of the sweep plane, the same side being a same half-plane with respect to said sweep plane, the laser scanner being characterised by further comprising a reference subsystem comprising a reference light source for emitting a reference light beam over a reference emission path, at least one reference target that when illuminated by the reference light beam returns reference return light over a reference light collection path, and a reference photodetector element for generating a reference electric signal from the reference return light, wherein the at least one reference target is different from but co-rotates with the scanning mirror , so as to be periodically illuminated by the reference light beam .
A method of patterning a substrate with a predetermined pattern having both fiducial marks and main pattern marks, comprising: coating at least a first visible ink and a second ink in at least one longitudinal lane each onto the substrate; applying a predetermined pattern with a resist material onto the first and second inks, the predetermined pattern having both fiducial marks within the lane(s) coated with the first visible ink and main pattern marks within the lane(s) coated by the second ink; hardening or curing the resist material; over coating the pattern with a strippable polymer layer; and peeling the strippable polymer layer from the substrate, thereby removing the portions of the first and the second inks not protected by the resist; wherein the second ink comprises nanowires and is conductive. coating at least a first visible ink and a second ink in at least one longitudinal lane each onto the substrate; applying a predetermined pattern with a resist material onto the first and second inks, the predetermined pattern having both fiducial marks within the lane(s) coated with the first visible ink and main pattern marks within the lane(s) coated by the second ink; hardening or curing the resist material; over coating the pattern with a strippable polymer layer; and peeling the strippable polymer layer from the substrate, thereby removing the portions of the first and the second inks not protected by the resist; wherein the second ink comprises nanowires and is conductive.
A fuel cell system comprising: a fuel cell assembly configured to generate a direct current (DC) signal; one or more inverters coupled to the fuel cell assembly by way of one or more first bus lines ; a variable frequency drive (VFD) coupled to an output of the one or more inverters and configured to receive AC power from the one or more inverters , wherein the VFD is configured to convert the AC power to DC power and to then invert this DC power to output variable frequency power to at least one auxiliary component during a normal operating condition; and one or more second bus lines configured to receive the DC signal via the one or more first bus lines and to provide the DC signal to the VFD , and then to invert this DC signal to output variable frequency power to the at least one auxiliary component during a low voltage ride through condition. a fuel cell assembly configured to generate a direct current (DC) signal; one or more inverters coupled to the fuel cell assembly by way of one or more first bus lines ; a variable frequency drive (VFD) coupled to an output of the one or more inverters and configured to receive AC power from the one or more inverters , wherein the VFD is configured to convert the AC power to DC power and to then invert this DC power to output variable frequency power to at least one auxiliary component during a normal operating condition; and one or more second bus lines configured to receive the DC signal via the one or more first bus lines and to provide the DC signal to the VFD , and then to invert this DC signal to output variable frequency power to the at least one auxiliary component during a low voltage ride through condition.
A printer for issuing a print medium, comprising: a rechargeable battery (B) configured to supply power to the printer ; a printing part configured to print information on the print medium; a controller configured to determine a number of print media on which the printing part can print with present remaining battery capacity of the battery (B), characterized in that the controller is configured to compute a decrease rate of remaining capacity of the battery (B) based on a number of print media that have been issued during a first period in an operation period of the printer and a decreased amount of remaining battery capacity of the battery (B) during the first period, and then to determine a number of print media on which the printing part can print with present remaining battery capacity of the battery (B), with the decrease rate. a rechargeable battery (B) configured to supply power to the printer ; a printing part configured to print information on the print medium; a controller configured to determine a number of print media on which the printing part can print with present remaining battery capacity of the battery (B), characterized in that the controller is configured to compute a decrease rate of remaining capacity of the battery (B) based on a number of print media that have been issued during a first period in an operation period of the printer and a decreased amount of remaining battery capacity of the battery (B) during the first period, and then to determine a number of print media on which the printing part can print with present remaining battery capacity of the battery (B), with the decrease rate.
A display having a touch sensor, the display comprising: a plurality of pixel areas disposed in a matrix manner on a substrate; a routing line (TW) running along a first direction on the substrate; a first passivation layer (PAS1) covering the routing line (TW); a touch electrode (Tx) disposed on the first passivation layer (PAS1) and overlapping the routing line (TW), the touch electrode (Tx) corresponding to a group of pixel areas; a touch contact hole (TH) exposing a portion of the routing line (TW) by penetrating the touch electrode (Tx) and the first passivation layer (PAS1); a second passivation layer (PAS2) covering the touch electrode (Tx); a passivation contact hole (PAH) exposing the touch contact hole (TH) and some portions of the touch electrode (Tx) around the touch contact hole (TH) by penetrating the second passivation layer (PAS2); and a touch terminal (TT) disposed on the second passivation layer (PAS2) and connecting the touch electrode (Tx) exposed through the passivation contact hole (PAH) to the routing line (TW) exposed through the touch contact hole (TH). a plurality of pixel areas disposed in a matrix manner on a substrate; a routing line (TW) running along a first direction on the substrate; a first passivation layer (PAS1) covering the routing line (TW); a touch electrode (Tx) disposed on the first passivation layer (PAS1) and overlapping the routing line (TW), the touch electrode (Tx) corresponding to a group of pixel areas; a touch contact hole (TH) exposing a portion of the routing line (TW) by penetrating the touch electrode (Tx) and the first passivation layer (PAS1); a second passivation layer (PAS2) covering the touch electrode (Tx); a passivation contact hole (PAH) exposing the touch contact hole (TH) and some portions of the touch electrode (Tx) around the touch contact hole (TH) by penetrating the second passivation layer (PAS2); and a touch terminal (TT) disposed on the second passivation layer (PAS2) and connecting the touch electrode (Tx) exposed through the passivation contact hole (PAH) to the routing line (TW) exposed through the touch contact hole (TH).
A method for joint transmission, which is applied in a wireless local area network system composed of an initiating access point, AP, a coordinated AP pre-determined to participate in the joint transmission and a station, STA, wherein the STA is associated with the initiating AP, the method comprising: sending , by the initiating AP to the STA, a request to send message used for the joint transmission, wherein the request to send message comprises a joint transmission indication and address information of the coordinated AP, to enable the STA to send a clear to send message used for the joint transmission to the coordinated AP corresponding to the address information and the initiating AP according to the joint transmission indication, to enable the coordinated AP to send data to the STA according to the clear to send message; sending , by the initiating AP, the data to the STA according to the clear to send message after receiving the clear to send message, to realize sending the data to the STA simultaneously with the coordinated AP. sending , by the initiating AP to the STA, a request to send message used for the joint transmission, wherein the request to send message comprises a joint transmission indication and address information of the coordinated AP, to enable the STA to send a clear to send message used for the joint transmission to the coordinated AP corresponding to the address information and the initiating AP according to the joint transmission indication, to enable the coordinated AP to send data to the STA according to the clear to send message; sending , by the initiating AP, the data to the STA according to the clear to send message after receiving the clear to send message, to realize sending the data to the STA simultaneously with the coordinated AP.