mhurhangee/patent-ind-claim-en huggingface dataset:
Method for aligning surveying instruments , including: emitting a collimated light beam (e.g. infrared light) from a first surveying instrument towards a second surveying instrument , the collimated light beam being aligned with a line of sight of the first surveying instrument ; receiving at the first surveying instrument a reflection of the collimated light beam from an autocollimation mirror at the second surveying instrument , the normal of the autocollimation mirror being arranged with a predetermined relationship with respect to the line of sight of the second surveying instrument ; moving at least one of the first and second surveying instruments to autocollimate the reflected collimated light beam at an autocollimator of the first surveying instrument ; and registering the first and the second surveying instruments in a common space based on an orientation of the line of sight of the first surveying instrument when the collimated light beam is autocollimated at the first surveying instrument , and based on the predetermined relationship between the normal of the autocollimation mirror and the line of sight of the second surveying instrument emitting a collimated light beam (e.g. infrared light) from a first surveying instrument towards a second surveying instrument , the collimated light beam being aligned with a line of sight of the first surveying instrument ; receiving at the first surveying instrument a reflection of the collimated light beam from an autocollimation mirror at the second surveying instrument , the normal of the autocollimation mirror being arranged with a predetermined relationship with respect to the line of sight of the second surveying instrument ; moving at least one of the first and second surveying instruments to autocollimate the reflected collimated light beam at an autocollimator of the first surveying instrument ; and registering the first and the second surveying instruments in a common space based on an orientation of the line of sight of the first surveying instrument when the collimated light beam is autocollimated at the first surveying instrument , and based on the predetermined relationship between the normal of the autocollimation mirror and the line of sight of the second surveying instrument
A wire driver , comprising: a housing having a proximal end and a distal end , the housing comprising a gripping portion and a handpiece extending from the proximal end to the gripping portion , wherein the gripping portion extends to the distal end ; a channel extending through the gripping portion ; a gripping mechanism connected to the channel ; and a first actuator connected to the distal end of the housing and the gripping mechanism ; and wherein the first actuator is movable between a relaxed position and a compressed position; wherein the gripping portion extends along a first central longitudinal axis, characterized in that the handpiece is connected to the gripping portion at an angle relative to the first central longitudinal axis. a housing having a proximal end and a distal end , the housing comprising a gripping portion and a handpiece extending from the proximal end to the gripping portion , wherein the gripping portion extends to the distal end ; a channel extending through the gripping portion ; a gripping mechanism connected to the channel ; and a first actuator connected to the distal end of the housing and the gripping mechanism ; and wherein the first actuator is movable between a relaxed position and a compressed position; wherein the gripping portion extends along a first central longitudinal axis, characterized in that the handpiece is connected to the gripping portion at an angle relative to the first central longitudinal axis.
Machine (M) for processing at least one panel (P), made in wood, plastic, metal, fiberglass, glass and the like, and for detecting the positioning of the processed panel (P') after the processing, comprising a processing unit of said at least one panel (P), which receives in said at least one panel (P), and which produces a plurality of portions (P 1 , P 2 , ..., P n ), the entire panel (P) has been subdivided into, according to a predetermined cutting pattern; a pick-up and transporting unit of said plurality of portions (P 1 , P 2 , ..., P n ), for picking up said plurality of portions (P 1 , P 2 , ..., P n ) and carrying said plurality of portions (P 1 , P 2 , ..., P n ) to one or more further processing stations outside said machine (M); a logic control unit operatively connected to said processing unit and pick-up and transporting unit , said logic control unit being provided with a program for controlling said processing unit and pick-up and transporting unit ; a working plane , for supporting said at least one panel (P) and said processed panel (P'), extending between said processing unit and pick-up and transporting unit , said machine (M) being characterized in that it comprises a detection unit , comprising a plurality of light sources (22a, 22 b , 22c, ..., 22 n ) and at least one video camera , configured to detect the data relating to the position of each portion of said plurality of portions (P 1 , P 2 , ..., P n ) on said working plane , in that it comprises a processing unit of detected data and images reconstruction configured to receive said data detected by said detection unit for reconstructing the image of the positioning of said plurality of portions (P 1 , P 2 , ..., P n ) on said working plane , in that said logic control unit is configured to receive said reconstructed image and to send control signals to said pick-up and transporting unit , said control signals containing information relating to the image and the position of each portion of said plurality of portions (P 1 , P 2 , ..., P n ) on said working plane , and in that said working plane comprises a scanning zone (12 b ) made of transparent or semi-transparent material, in such a way that the light emitted by said plurality of light sources (22a, 22 b , 22c, ..., 22 n ) can pass beyond said working plane for radiating said plurality of panels (P 1 , P 2 , ..., P n ) and can be detected by said video camera of said detection unit .
An adapter supporting a first charging mode and a second charging mode, comprising: a power converting circuit , configured to convert inputted alternating current, AC, to generate output voltage and output current of the adapter , the power converting circuit comprising a secondary filter circuit; a control circuit , coupled to the secondary filter circuit and configured to control the secondary filter circuit to operate when the adapter operates in the first charging mode, so that the adapter outputs constant direct current, and configured to control the secondary filter circuit not to operate when the adapter operates in the second charging mode, so that the adapter outputs an alternating current or a pulsating direct current; wherein a speed by which the adapter operable in the second charging mode charges a chargeable device is faster than a speed by which the adapter operable in the first charging mode charges the chargeable device. a power converting circuit , configured to convert inputted alternating current, AC, to generate output voltage and output current of the adapter , the power converting circuit comprising a secondary filter circuit; a control circuit , coupled to the secondary filter circuit and configured to control the secondary filter circuit to operate when the adapter operates in the first charging mode, so that the adapter outputs constant direct current, and configured to control the secondary filter circuit not to operate when the adapter operates in the second charging mode, so that the adapter outputs an alternating current or a pulsating direct current; wherein a speed by which the adapter operable in the second charging mode charges a chargeable device is faster than a speed by which the adapter operable in the first charging mode charges the chargeable device.
A method for producing a fermented soy milk substance, the method comprising the steps of: (a) selecting a Streptococcus thermophilus strain capable of accumulating 0.4 g/l or more of fructose when inoculated and cultured in a culture medium consisting of soy milk for a time of 12 to 24 hours at a temperature of 37 to 45°C; (b) selecting a Lactobacillus delbrueckii subsp. bulgaricus strain capable of accumulating 0.4 g/l or more of D-lactic acid when inoculated and co-cultured with the strain selected under step (a) inoculated as well in a culture medium consisting of soy milk for a time of 12 to 24 hours at a temperature of 37 to 45°C; (c) inoculating the combination of Streptococcus thermophilus and Lactobacillus delbrueckii subsp. bulgaricus with which criterium (b) was fulfilled in pure soy milk, and (d) carrying out fermentation to obtain a fermented soy milk product having a D-lactic acid content of 0.4 g/l or more and a D/L-lactic acid ratio of 0.05 or more, wherein the quantity of D-lactic acid in the soy milk fermented substance is measured by an enzyme electrode approach. (a) selecting a Streptococcus thermophilus strain capable of accumulating 0.4 g/l or more of fructose when inoculated and cultured in a culture medium consisting of soy milk for a time of 12 to 24 hours at a temperature of 37 to 45°C; (b) selecting a Lactobacillus delbrueckii subsp. bulgaricus strain capable of accumulating 0.4 g/l or more of D-lactic acid when inoculated and co-cultured with the strain selected under step (a) inoculated as well in a culture medium consisting of soy milk for a time of 12 to 24 hours at a temperature of 37 to 45°C; (c) inoculating the combination of Streptococcus thermophilus and Lactobacillus delbrueckii subsp. bulgaricus with which criterium (b) was fulfilled in pure soy milk, and (d) carrying out fermentation to obtain a fermented soy milk product having a D-lactic acid content of 0.4 g/l or more and a D/L-lactic acid ratio of 0.05 or more, wherein the quantity of D-lactic acid in the soy milk fermented substance is measured by an enzyme electrode approach.
A computer-implemented method of forming an applicator body of an applicator for insertion into an anatomical cavity of a patient for delivering a treatment to the patient, the method comprising: receiving a pre-generated three-dimensional image of the anatomical cavity , the three-dimensional image having been generated while the anatomical cavity contained an expandable container adjacent a tissue region of the patient, wherein the expandable container, when contained in the anatomical cavity, was filled with a fluid such that the container was expanded to substantially conform to the shape of at least a portion of the tissue region forming at least a portion of the anatomical cavity; isolating, from the three-dimensional image, a first sub-image corresponding to an image of the filled expanded container ; and using the sub-image as a design template for forming the applicator body for use with the patient. receiving a pre-generated three-dimensional image of the anatomical cavity , the three-dimensional image having been generated while the anatomical cavity contained an expandable container adjacent a tissue region of the patient, wherein the expandable container, when contained in the anatomical cavity, was filled with a fluid such that the container was expanded to substantially conform to the shape of at least a portion of the tissue region forming at least a portion of the anatomical cavity; isolating, from the three-dimensional image, a first sub-image corresponding to an image of the filled expanded container ; and using the sub-image as a design template for forming the applicator body for use with the patient.
A can lid, in particular for beverage cans, comprising a bounded opening region provided in the metallic lid material of a lid surface ; and a two-armed lever member intended for opening this opening region , said lever member being fixedly connected, in particular via a rivet connection or a weld connection, to the lid material, wherein the lower side of the metallic lid is coated in a firmly adhering manner, in particular over its full surface, with a plastic material, in particular a plastic film , characterized in that the opening region is configured as a tongue tab which is separated from the lid surface by a microgap , in particular a punched gap, extending over the tab periphery and the tongue tab base connected to the lid surface forms a kink bearing which becomes effective during the opening procedure; and in that the coating is weakened, in particular notched and preferably at least partly notched open, adjacent to the microgap between the tongue tab and the lid surface .
An information management device comprising: an interface configured to receive an association operation program accompanied by authentication information from an electronic device , the association operation program configuring the electronic device to realize an association operation, during which the electronic device and another electronic device operate in association, wherein the association program is a script; and circuitry configured to identify an execution range of the association operation program executed by the electronic device based on the authentication information , the execution range is a limit of a functionality of the electronic device available in the association operation indicative of an authentication of an association between the electronic device and the another electronic device , wherein the execution range limits the association operation to part in which the permission based on the authentication information is not necessary for execution if the authentication information does not match the stored authentication information , and the execution range further includes a part in which permission based on the authentication information 1303 is necessary for execution if the authentication information matches the stored authentication information . an interface configured to receive an association operation program accompanied by authentication information from an electronic device , the association operation program configuring the electronic device to realize an association operation, during which the electronic device and another electronic device operate in association, wherein the association program is a script; and circuitry configured to identify an execution range of the association operation program executed by the electronic device based on the authentication information , the execution range is a limit of a functionality of the electronic device available in the association operation indicative of an authentication of an association between the electronic device and the another electronic device , wherein the execution range limits the association operation to part in which the permission based on the authentication information is not necessary for execution if the authentication information does not match the stored authentication information , and the execution range further includes a part in which permission based on the authentication information 1303 is necessary for execution if the authentication information matches the stored authentication information .
A method of a User Equipment device, UE, comprising a physical, PHY, layer and a Medium Access Control, MAC, layer, the method comprising: determining a minimum time duration between a first resource for hybrid automatic repeat request, HARQ, transmission of a transport block, TB, and a second resource for HARQ transmission of the TB, wherein the minimum time duration comprises a sum of: a first time to receive HARQ feedback; a second time to determine whether to perform retransmissions of the TB; and a third time to retransmit the TB; and selecting a retransmission mode based on the minimum time duration, wherein the retransmission mode comprises one of: a blind retransmission mode and a HARQ feedback-based transmission, HFBT, mode; and selecting sidelink resources for retransmission of the TB based on the selected retransmission mode. determining a minimum time duration between a first resource for hybrid automatic repeat request, HARQ, transmission of a transport block, TB, and a second resource for HARQ transmission of the TB, wherein the minimum time duration comprises a sum of: a first time to receive HARQ feedback; a second time to determine whether to perform retransmissions of the TB; and a third time to retransmit the TB; and selecting a retransmission mode based on the minimum time duration, wherein the retransmission mode comprises one of: a blind retransmission mode and a HARQ feedback-based transmission, HFBT, mode; and a first time to receive HARQ feedback; a second time to determine whether to perform retransmissions of the TB; and a third time to retransmit the TB; and selecting a retransmission mode based on the minimum time duration, wherein the retransmission mode comprises one of: a blind retransmission mode and a HARQ feedback-based transmission, HFBT, mode; and selecting sidelink resources for retransmission of the TB based on the selected retransmission mode.
A method of processing video data, the method comprising: receiving a first aggregation packet according to a real-time transfer protocol (RTP), wherein the first aggregation packet comprises a payload header followed by payload data comprising a first aggregation unit, that is the first aggregation unit of the first aggregation packet, including a first network abstraction layer (NAL) unit, the payload data further comprising a second aggregation unit, that follows the first aggregation unit in the first aggregation packet, including a second NAL unit, wherein if a transmission mode is equal to multi-session transmission, MST, or if the maximum number of NAL units that precede a NAL unit in a de-packetization buffer in reception order and follow the NAL unit in decoding order is greater than 0, the first aggregation unit further includes a first syntax element and the second aggregation unit further includes a second syntax element; wherein the first syntax element consists of the 16 least significant bits of the decoding order number for the first NAL unit; wherein the second syntax element plus 1 specifies a difference between the decoding order number for the first NAL unit and the decoding order number for the second NAL unit; and determining a decoding order for the second NAL unit included in the second aggregation unit, wherein the decoding order for the second NAL unit included in the second aggregation unit is derived as equal to the first syntax element plus the second syntax element plus 1 modulo 65536. receiving a first aggregation packet according to a real-time transfer protocol (RTP), wherein the first aggregation packet comprises a payload header followed by payload data comprising a first aggregation unit, that is the first aggregation unit of the first aggregation packet, including a first network abstraction layer (NAL) unit, the payload data further comprising a second aggregation unit, that follows the first aggregation unit in the first aggregation packet, including a second NAL unit, wherein if a transmission mode is equal to multi-session transmission, MST, or if the maximum number of NAL units that precede a NAL unit in a de-packetization buffer in reception order and follow the NAL unit in decoding order is greater than 0, the first aggregation unit further includes a first syntax element and the second aggregation unit further includes a second syntax element; wherein the first syntax element consists of the 16 least significant bits of the decoding order number for the first NAL unit; wherein the second syntax element plus 1 specifies a difference between the decoding order number for the first NAL unit and the decoding order number for the second NAL unit; and determining a decoding order for the second NAL unit included in the second aggregation unit, wherein the decoding order for the second NAL unit included in the second aggregation unit is derived as equal to the first syntax element plus the second syntax element plus 1 modulo 65536.
A method for decoding a video signal comprising: judging whether or not a candidate unit among reconstructed neighboring units and a target unit have same reference picture list and use the same reference picture; selecting the candidate unit among reconstructed neighboring units if the candidate unit among reconstructed neighboring units and the target unit have same reference picture list and use the same reference picture; judging whether or not a motion information of the candidate unit among reconstructed neighboring units and a motion information of the target unit are similar to each other, wherein if the candidate unit among reconstructed neighboring units and the target unit have different reference picture lists but use the same reference picture, judging that the motion information of the candidate unit among reconstructed neighboring units and of the target unit are similar to each other; selecting the candidate unit among reconstructed neighboring units if the motion information of the candidate unit among reconstructed neighboring units and the motion information of the target unit are similar to each other; generating a candidate set for the target unit using the selected candidate unit; and performing inter prediction on the target unit using the generated candidate set. judging whether or not a candidate unit among reconstructed neighboring units and a target unit have same reference picture list and use the same reference picture; selecting the candidate unit among reconstructed neighboring units if the candidate unit among reconstructed neighboring units and the target unit have same reference picture list and use the same reference picture; judging whether or not a motion information of the candidate unit among reconstructed neighboring units and a motion information of the target unit are similar to each other, wherein if the candidate unit among reconstructed neighboring units and the target unit have different reference picture lists but use the same reference picture, judging that the motion information of the candidate unit among reconstructed neighboring units and of the target unit are similar to each other; selecting the candidate unit among reconstructed neighboring units if the motion information of the candidate unit among reconstructed neighboring units and the motion information of the target unit are similar to each other; generating a candidate set for the target unit using the selected candidate unit; and performing inter prediction on the target unit using the generated candidate set.
A method for determining the antioxidant power of a sample of a biological fluid or a liquid food, comprising the steps of contacting the sample with an aqueous solution of an oxidising agent and a chromogenic peroxidase substrate, and detecting the colour intensity of the final solution thereby obtained, the colour intensity being proportional to the antioxidant power of the biological sample or liquid food sample, characterized in that the aqueous solution further comprises palladium nanoparticles.