mhurhangee/patent-ind-claim-en huggingface dataset:
A time-to-digital converter comprising: • a time register configured to receive a time-domain input signal , wherein the digital-to-time converter is configured to provide a feed-back signal at a first node coupled to the time register ; • a time quantizer coupled to the time register for providing a digital output signal Dout ; and a digital-to-time converter coupled the time register for delaying an output signal of the time register in response to the digital output signal Dout ( . • a time register configured to receive a time-domain input signal , wherein the digital-to-time converter is configured to provide a feed-back signal at a first node coupled to the time register ; • a time quantizer coupled to the time register for providing a digital output signal Dout ; and a digital-to-time converter coupled the time register for delaying an output signal of the time register in response to the digital output signal Dout ( .
Apparatus for detecting invalid configurations in a bi-directional multiplexing infrastructure, wherein the apparatus comprises the bi-directional multiplexing infrastructure, wherein the bi-directional multiplexing infrastructure comprises a multiplexer decoder logic , multiple sources as inputs and multiple sinks as outputs , wherein each source of the multiple sources corresponds to a source n , wherein n stands for the source identifier, and wherein the sources and sinks are connected via forward and backward multiplexers , characterized in, that the multiplexer decoder logic further comprises a configuration error checker configured to detect invalid configurations and to monitor each source n and all control signals of the backward multiplexers connected to the sources , wherein the configuration error checker comprises an evaluation instance for each source n , wherein each evaluation instance is configured to output a logical equivalent E n to the control signals of the backward multiplexers for one source n , wherein the logical equivalent E n for one source n is determined by connecting the control signals of two sinks for said source n by an ANDand by an OR-operation via an AND- and an OR-gate, respectively, the result of the OR-operation is combined with a control signal of a further sink for said source n by a further AND- and by a further OR-operation, wherein this step of combining the result of the OR-operation with a control signal of a further sink for said source n by a further AND- and by a further OR-operation is repeated until the control signals of all sinks for said source n are processed such and finally all outputs of the processed AND-operations are connected by a final OR-operation via a final OR-gate, and wherein the invalid configuration in the bi-directional multiplexing infrastructure is detected according to error information created by the configuration error checker indicating which source n is used more than once.
Liquid edible fat-continuous emulsion comprising from 3 to 40% by weight on the total emulsion of a dispersed aqueous phase and from 60 to 97% by weight on the total emulsion of a continuous fat phase, wherein said fat phase comprises 80-100% by weight on the total fat phase of triglycerides of fatty acids, wherein these fatty acids are present in the following amounts (by weight, on the total of fatty acids): - 1 -15% of caprylic acid - 1 -15% of capric acid - 0 - 1% of lauric acid - 40 - 95% of fatty acids of 16 carbon atoms length or longer, single or multiple unsaturated taken together - 5 - 25 of saturated fatty acids of 16 carbon atoms length or longer. - 1 -15% of caprylic acid - 1 -15% of capric acid - 0 - 1% of lauric acid - 40 - 95% of fatty acids of 16 carbon atoms length or longer, single or multiple unsaturated taken together - 5 - 25 of saturated fatty acids of 16 carbon atoms length or longer.
Electrical connection device comprising - at least one contact (3; 4) and a carrier , - a support plate , - wherein the carrier comprises at least one receptacle (6; 7) and the contact (3; 4) is inserted into this receptacle (6; 7), - wherein the carrier comprises a printed circuit board and at least one temperature sensor (17; 18), - wherein the temperature sensor (17; 18) is arranged on the printed circuit board in the vicinity of the contact (3; 4), - wherein the printed circuit board comprises an electrically insulating layer and an electrically conductive top layer separated from the support plate by the electrically insulating layer , - wherein the electrically conductive top layer is arranged in the region of a recess (A14; B14) of the electrically insulating layer and comprises an outer connection region (19a; 20a) and an inner contact region (19b; 20b), - wherein the inner contact region (19b; 20b) is formed by the contact (3; 4) through a recess (A12; B12) of the support plate in such a way that the electrically conductive top layer rests against a lateral surface (M3; M4) of the contact (3; 4), - wherein a top side of the support plate adjacent to the recess (A12; B12) thereof is formed as a primary bending edge (31; 32) over which the electrically conductive top layer of the printed circuit board is bent by 5° to 90°. - at least one contact (3; 4) and a carrier , - a support plate , - wherein the carrier comprises at least one receptacle (6; 7) and the contact (3; 4) is inserted into this receptacle (6; 7), - wherein the carrier comprises a printed circuit board and at least one temperature sensor (17; 18), - wherein the temperature sensor (17; 18) is arranged on the printed circuit board in the vicinity of the contact (3; 4), - wherein the printed circuit board comprises an electrically insulating layer and an electrically conductive top layer separated from the support plate by the electrically insulating layer , - wherein the electrically conductive top layer is arranged in the region of a recess (A14; B14) of the electrically insulating layer and comprises an outer connection region (19a; 20a) and an inner contact region (19b; 20b), - wherein the inner contact region (19b; 20b) is formed by the contact (3; 4) through a recess (A12; B12) of the support plate in such a way that the electrically conductive top layer rests against a lateral surface (M3; M4) of the contact (3; 4), - wherein a top side of the support plate adjacent to the recess (A12; B12) thereof is formed as a primary bending edge (31; 32) over which the electrically conductive top layer of the printed circuit board is bent by 5° to 90°.
A catheter comprising: an elongated catheter body ; a deflection section distal of the catheter body ; and a distal electrode assembly distal of the deflection section , the assembly comprising a plurality of spines extending in a common plane, each spine having a plurality of electrodes, a proximal portion and a distal portion, wherein the proximal portion comprises a linear portion and a proximal end, wherein the proximal portions converge at their proximal ends near the distal end of the deflection section and wherein the linear portions are spaced from each other at predetermined separation distances, wherein the distal portion of each spine is joined with the distal portion of one other spine in forming a loop, wherein the loop generally maintains the linear portions at their predetermined separation distances, characterized in that the plurality of spines comprises six spines forming three loops, the three loops intersecting at three locations (X1, X2, X3), wherein the linear portions each comprise four electrodes arranged in a rectangular grid pattern across the three loops. an elongated catheter body ; a deflection section distal of the catheter body ; and a distal electrode assembly distal of the deflection section , the assembly comprising a plurality of spines extending in a common plane, each spine having a plurality of electrodes, a proximal portion and a distal portion, wherein the proximal portion comprises a linear portion and a proximal end, wherein the proximal portions converge at their proximal ends near the distal end of the deflection section and wherein the linear portions are spaced from each other at predetermined separation distances, wherein the distal portion of each spine is joined with the distal portion of one other spine in forming a loop, wherein the loop generally maintains the linear portions at their predetermined separation distances, characterized in that the plurality of spines comprises six spines forming three loops, the three loops intersecting at three locations (X1, X2, X3), wherein the linear portions each comprise four electrodes arranged in a rectangular grid pattern across the three loops.
An installation for bonding, respectively entangling a web of fibres with a nonwoven by water jets, with a first circulating belt , on which a web of fibre material can be deposited, and a device for introducing a nonwoven into the installation, with a further following circulating belt, on which the nonwoven can be bonded, respectively entangled with the web of fibre material by water jets, wherein the web of fibre material from the first circulating belt at first can be deposited on the nonwoven and then the fibre material together with the nonwoven is delivered to the following belt for bonding, respectively entangling by water jets, characterized in that the web of fibre material is delivered with the upper side thereof to a circulating belt , which is disposed upstream the further following belt for hydroentangling, and the device for introducing the nonwoven into the installation is disposed between the belts and .
A method performed by one of at least two terminals in a multi-user multiple input multiple output, MU-MIMO, arrangement, wherein each of the terminals is configured for respective at least two bandwidths, comprising: receiving an uplink scheduling grant , the uplink scheduling grant comprising an index for mutually orthogonal demodulation reference signals, DM RS, resource having a cyclic shift and an orthogonal cover code or a cyclic shift and resource block-wise spreading code; receiving (S3) resource blocks generated in such a manner that a resource block allocation for the one of the at least two terminals is different from a resource block allocation for another one of the at least two terminals ; and allocating (S4) the resource blocks for the one of the at least two terminals . receiving an uplink scheduling grant , the uplink scheduling grant comprising an index for mutually orthogonal demodulation reference signals, DM RS, resource having a cyclic shift and an orthogonal cover code or a cyclic shift and resource block-wise spreading code; receiving (S3) resource blocks generated in such a manner that a resource block allocation for the one of the at least two terminals is different from a resource block allocation for another one of the at least two terminals ; and allocating (S4) the resource blocks for the one of the at least two terminals .
A web for forming dunnage units, comprising: a first elongated layer ; a second elongated layer superposed over the first elongated layer, the first and second layers connected together at an inflation edge and an opposite edge ; a plurality of transverse seals extending from the opposite edge to within a first predetermined distance from the inflation edge, wherein said opposite edge and said transverse seals form a plurality of inflatable adjacent pouches ; a plurality of inflation edge lines of perforations through the first and second elongated layers that extend inward from the inflation edge; and a plurality of opposite edge lines of perforations through the first and second elongated layers that extend inward from the opposite edge; characterized by : a plurality of gap forming lines extending between the inflation edge lines of perforations and the opposite edge lines of perforations, wherein the gap forming lines are configured such that inflation of the pouches causes said web to separate along the gap forming lines such that adjacent pouches move away from one another in the area of the gap forming lines and wherein said inflation edge lines of perforations are configured such that inflation of the pouches leaves the inflation edge perforations intact. a first elongated layer ; a second elongated layer superposed over the first elongated layer, the first and second layers connected together at an inflation edge and an opposite edge ; a plurality of transverse seals extending from the opposite edge to within a first predetermined distance from the inflation edge, wherein said opposite edge and said transverse seals form a plurality of inflatable adjacent pouches ; a plurality of inflation edge lines of perforations through the first and second elongated layers that extend inward from the inflation edge; and a plurality of opposite edge lines of perforations through the first and second elongated layers that extend inward from the opposite edge; characterized by : a plurality of gap forming lines extending between the inflation edge lines of perforations and the opposite edge lines of perforations, wherein the gap forming lines are configured such that inflation of the pouches causes said web to separate along the gap forming lines such that adjacent pouches move away from one another in the area of the gap forming lines and wherein said inflation edge lines of perforations are configured such that inflation of the pouches leaves the inflation edge perforations intact.
An automotive access system transceiver , the transceiver comprising: a receiver for receiving a multi-bit input signal; a data-receiving circuit ; a transmitter ; and a control circuit to control the transmitter and receiver for communicating signals with a vehicle base station , wherein the data-receiving circuit comprises a pattern detection unit (300; 400) configured to compare the multi-bit input signal with a target pattern associated with a vehicle base station, wherein the pattern detection unit (300; 400) comprises: a shift register (302; 402) configured to over-sample the multi-bit input signal such that each bit of the input signal is represented by a plurality of samples in the shift register (302; 402); and a correlator (304; 404) configured to compare the target pattern with two or more of the plurality of samples of each bit from the shift register (302; 402) in order to determine whether or not the input signal matches the target pattern, wherein the controller is configured, in response to finding a match between the input signal and the target pattern, to operate the transmitter of the remote transceiver circuit to send an authorisation signal to the vehicle base station . a receiver for receiving a multi-bit input signal; a data-receiving circuit ; a transmitter ; and a control circuit to control the transmitter and receiver for communicating signals with a vehicle base station , wherein the data-receiving circuit comprises a pattern detection unit (300; 400) configured to compare the multi-bit input signal with a target pattern associated with a vehicle base station, wherein the pattern detection unit (300; 400) comprises: a shift register (302; 402) configured to over-sample the multi-bit input signal such that each bit of the input signal is represented by a plurality of samples in the shift register (302; 402); and a correlator (304; 404) configured to compare the target pattern with two or more of the plurality of samples of each bit from the shift register (302; 402) in order to determine whether or not the input signal matches the target pattern, a shift register (302; 402) configured to over-sample the multi-bit input signal such that each bit of the input signal is represented by a plurality of samples in the shift register (302; 402); and a correlator (304; 404) configured to compare the target pattern with two or more of the plurality of samples of each bit from the shift register (302; 402) in order to determine whether or not the input signal matches the target pattern, wherein the controller is configured, in response to finding a match between the input signal and the target pattern, to operate the transmitter of the remote transceiver circuit to send an authorisation signal to the vehicle base station .
A cleaning system comprising: a vacuum cleaner; and a box-shaped dust collecting station configured to be in communication with the vacuum cleaner and to remove foreign substances collected by the vacuum cleaner, wherein the dust collecting station comprises: a cover configured to pivot about an axis between an open position and a closed position; a detachable dust bag configured to collect the foreign substances removed from the vacuum cleaner, characterized in that the dust collecting station further comprises a panel forming at least part of a front surface; and a rear surface arranged opposite the front surface, wherein the panel is configured to be moved to expose the cover of the dust collecting station toward a front of the dust collecting station, so that the cover is accessible from the front of the dust collecting station, and wherein the detachable dust bag of the dust collecting station is removable from the dust collecting station toward the front of the dust collecting station, when the cover is in the open position. a vacuum cleaner; and a box-shaped dust collecting station configured to be in communication with the vacuum cleaner and to remove foreign substances collected by the vacuum cleaner, wherein the dust collecting station comprises: a cover configured to pivot about an axis between an open position and a closed position; a detachable dust bag configured to collect the foreign substances removed from the vacuum cleaner, characterized in that the dust collecting station further comprises a panel forming at least part of a front surface; and a rear surface arranged opposite the front surface, a cover configured to pivot about an axis between an open position and a closed position; a detachable dust bag configured to collect the foreign substances removed from the vacuum cleaner, characterized in that the dust collecting station further comprises a panel forming at least part of a front surface; and a rear surface arranged opposite the front surface, wherein the panel is configured to be moved to expose the cover of the dust collecting station toward a front of the dust collecting station, so that the cover is accessible from the front of the dust collecting station, and wherein the detachable dust bag of the dust collecting station is removable from the dust collecting station toward the front of the dust collecting station, when the cover is in the open position.
A compound of formula ID, or a pharmaceutically acceptable salt or ester thereof: wherein: X is -O-; R 1 is -OH or -CN; R 2 is a -C(=O)R a group; R 3 is hydrogen or a -OR b group; R 4 is selected from hydrogen, -CHzOH and -CH 2 O-(C=O)R c ; R a is selected from hydrogen, substituted or unsubstituted C 1 -C 12 alkyl, substituted or unsubstituted C 2 -C 12 alkenyl, and substituted or unsubstituted C 2 -C 12 alkynyl; R b is selected from substituted or unsubstituted C 1 -C 12 alkyl, substituted or unsubstituted C 2 -C 12 alkenyl and substituted or unsubstituted C 2 -C 12 alkynyl; and R c is selected from substituted or unsubstituted C 1 -C 12 alkyl, substituted or unsubstituted C 2 -C 12 alkenyl, and substituted or unsubstituted C 2 -C 12 alkynyl. X is -O-; R 1 is -OH or -CN; R 2 is a -C(=O)R a group; R 3 is hydrogen or a -OR b group; R 4 is selected from hydrogen, -CHzOH and -CH 2 O-(C=O)R c ; R a is selected from hydrogen, substituted or unsubstituted C 1 -C 12 alkyl, substituted or unsubstituted C 2 -C 12 alkenyl, and substituted or unsubstituted C 2 -C 12 alkynyl; R b is selected from substituted or unsubstituted C 1 -C 12 alkyl, substituted or unsubstituted C 2 -C 12 alkenyl and substituted or unsubstituted C 2 -C 12 alkynyl; and R c is selected from substituted or unsubstituted C 1 -C 12 alkyl, substituted or unsubstituted C 2 -C 12 alkenyl, and substituted or unsubstituted C 2 -C 12 alkynyl.
Method for creating a bore in the ground using a boring device , in which a boring bar is driven in a rotary manner, at the bottom end of which a boring tool is releasably fastened by means of a connection apparatus , wherein a boring depth is detected by means of a measurement apparatus, characterised in that at the start, the boring tool is placed on a reference surface, and in that this position is used as a reference height of the measurement apparatus, in that while the bore is being created, a first boring tool is removed and at least one second boring tool is fastened to the boring bar by means of the connection apparatus , the axial length of which has a length difference compared with the length of the first boring tool , and in that a correction factor is provided, by which the length difference is taken into account by the measurement apparatus in the measurements. at the start, the boring tool is placed on a reference surface, and in that this position is used as a reference height of the measurement apparatus, in that while the bore is being created, a first boring tool is removed and at least one second boring tool is fastened to the boring bar by means of the connection apparatus , the axial length of which has a length difference compared with the length of the first boring tool , and in that a correction factor is provided, by which the length difference is taken into account by the measurement apparatus in the measurements.
Method for setting up a communication from a first communication device (DC1) intended for a second communication device (DC2), the first and second communication devices each having a main call identifier, the method implementing, in a communication management device (DGC): - reception (ST1), from the first communication device, of a message comprising: • identification data associated with the first communication device, which have been stored beforehand in the communication management device, • the main call identifier (IAP2) of the second communication device, - transmission (ST5) to the first communication device of a message containing a call identifier dedicated to the communication to be set up and dependent either on the main call identifier of the second communication device contained in the received message, or on a communication service associated with the communication to be set up, - interception (ST7c-ST8c) of a call of the first communication device to the dedicated call identifier, then routing (ST9c) of said call to the main call identifier of the second communication device, using a secondary call identifier of the first communication device, said secondary identifier having been associated beforehand in correspondence with the identification data associated with the first communication device, - set-up (ST10) of the communication between the first and second communication device. - reception (ST1), from the first communication device, of a message comprising: • identification data associated with the first communication device, which have been stored beforehand in the communication management device, • the main call identifier (IAP2) of the second communication device, • identification data associated with the first communication device, which have been stored beforehand in the communication management device, • the main call identifier (IAP2) of the second communication device, - transmission (ST5) to the first communication device of a message containing a call identifier dedicated to the communication to be set up and dependent either on the main call identifier of the second communication device contained in the received message, or on a communication service associated with the communication to be set up, - interception (ST7c-ST8c) of a call of the first communication device to the dedicated call identifier, then routing (ST9c) of said call to the main call identifier of the second communication device, using a secondary call identifier of the first communication device, said secondary identifier having been associated beforehand in correspondence with the identification data associated with the first communication device, - set-up (ST10) of the communication between the first and second communication device.