mhurhangee/patent-ind-claim-en huggingface dataset:
A graphics processor (1408; 1508; 1600; 2100; 2332; 2510; 2610; 2640; 3404) comprising: a processing resource including a register file (258; 334A-334B; 369; 1406; 1906); a memory device ; a cache coupled with the processing resources and the memory; and circuitry to process memory access messages received from the processing resource , wherein to process the memory access messages, the circuitry is configured to: receive a memory access message from the processing resource , wherein the memory access message includes an address and an immediate offset value; perform a bounds check for the memory address as adjusted according to the immediate offset value, wherein the bounds check is performed for a memory allocation to be accessed via the memory access message; generate one or more memory access requests including the memory address as adjusted according to the immediate offset value in response to determination that the memory access is an in-bound memory access; and submit the one or more memory access requests to a cache interface or a memory interface. a processing resource including a register file (258; 334A-334B; 369; 1406; 1906); a memory device ; a cache coupled with the processing resources and the memory; and circuitry to process memory access messages received from the processing resource , wherein to process the memory access messages, the circuitry is configured to: receive a memory access message from the processing resource , wherein the memory access message includes an address and an immediate offset value; perform a bounds check for the memory address as adjusted according to the immediate offset value, wherein the bounds check is performed for a memory allocation to be accessed via the memory access message; generate one or more memory access requests including the memory address as adjusted according to the immediate offset value in response to determination that the memory access is an in-bound memory access; and submit the one or more memory access requests to a cache interface or a memory interface. receive a memory access message from the processing resource , wherein the memory access message includes an address and an immediate offset value; perform a bounds check for the memory address as adjusted according to the immediate offset value, wherein the bounds check is performed for a memory allocation to be accessed via the memory access message; generate one or more memory access requests including the memory address as adjusted according to the immediate offset value in response to determination that the memory access is an in-bound memory access; and submit the one or more memory access requests to a cache interface or a memory interface.
A processor-implemented decoding method for speech recognition in a first neural network, the decoding method comprising: predicting probabilities (p 1 ,..., p m ) of candidates of an output token based on at least one input token that was initially input, wherein the at least one input token comprises a speech input; determining the output token (c i ) among the candidates based on the predicted probabilities; and determining a next input token by selecting one of the output token (c i ) and a pre-defined special token (t NC ) based on a determined probability of the output token, wherein the determining comprises: comparing the determined probability of the output token to a threshold probability (θ nc ); selecting the special token as the next input token when the determined probability of the output token is lower than the threshold probability (θ nc ), masking the special token to prevent tokens other than the special token from attending to the special token such that the other tokens do not have a conditional probability in association with the special token; and selecting the output token as the next input token when the determined probability of the output token is higher than or equal to the threshold probability (θ nc ). predicting probabilities (p 1 ,..., p m ) of candidates of an output token based on at least one input token that was initially input, wherein the at least one input token comprises a speech input; determining the output token (c i ) among the candidates based on the predicted probabilities; and determining a next input token by selecting one of the output token (c i ) and a pre-defined special token (t NC ) based on a determined probability of the output token, wherein the determining comprises: comparing the determined probability of the output token to a threshold probability (θ nc ); selecting the special token as the next input token when the determined probability of the output token is lower than the threshold probability (θ nc ), masking the special token to prevent tokens other than the special token from attending to the special token such that the other tokens do not have a conditional probability in association with the special token; and selecting the output token as the next input token when the determined probability of the output token is higher than or equal to the threshold probability (θ nc ). comparing the determined probability of the output token to a threshold probability (θ nc ); selecting the special token as the next input token when the determined probability of the output token is lower than the threshold probability (θ nc ), masking the special token to prevent tokens other than the special token from attending to the special token such that the other tokens do not have a conditional probability in association with the special token; and selecting the output token as the next input token when the determined probability of the output token is higher than or equal to the threshold probability (θ nc ).
A method for obtaining X2 interface information of a neighbor evolved NodeB, eNB, / Relay Node, RN, characterized by comprising: a DeNB sending a GU Group Id List and cell information of a neighbor eNB to a RN network element, and the RN network element establishing a corresponding relationship between an eNB identifier of the neighbor eNB and the GU Group Id List of the neighbor eNB to judge whether to perform an S1 interface or an X2 interface switch, wherein the GU Group Id List indicates a pool of a core network to which the neighbor eNB belongs to; or a DeNB sending a GU Group Id List and cell information of an RN network element to a neighbor eNB, and the neighbor eNB establishing a corresponding relationship between an eNB identifier of the RN network element and the GU Group Id List of the RN network element to judge whether to perform an S1 interface or an X2 interface switch, wherein the GU Group Id List indicates a pool of a core network to which the RN network element belongs to. a DeNB sending a GU Group Id List and cell information of a neighbor eNB to a RN network element, and the RN network element establishing a corresponding relationship between an eNB identifier of the neighbor eNB and the GU Group Id List of the neighbor eNB to judge whether to perform an S1 interface or an X2 interface switch, wherein the GU Group Id List indicates a pool of a core network to which the neighbor eNB belongs to; or a DeNB sending a GU Group Id List and cell information of an RN network element to a neighbor eNB, and the neighbor eNB establishing a corresponding relationship between an eNB identifier of the RN network element and the GU Group Id List of the RN network element to judge whether to perform an S1 interface or an X2 interface switch, wherein the GU Group Id List indicates a pool of a core network to which the RN network element belongs to.
A method for producing a value or security document blank having an electronic circuit, said method comprising the following steps: (a) providing a mobile token , (b) producing a compact module , comprising the following sub-steps: (b1) providing a first document layer in the form of a circuit carrier layer supporting the electronic circuit and at least one second document layer , wherein the first document layer and the at least one second document layer are formed from a fibre composite material, wherein the circuit carrier layer carries or comprises a plurality of separately housed electronic components and conductor tracks connecting the components, (b2) stacking the document layers , (b3) non-releasably joining the first document layer and the at least one second document layer to form a compact module , (c) forming a recess complementary to the compact module on an outer side of the mobile token , (d) arranging the compact module in the recess in the mobile token and connecting to the mobile token . (a) providing a mobile token , (b) producing a compact module , comprising the following sub-steps: (b1) providing a first document layer in the form of a circuit carrier layer supporting the electronic circuit and at least one second document layer , wherein the first document layer and the at least one second document layer are formed from a fibre composite material, wherein the circuit carrier layer carries or comprises a plurality of separately housed electronic components and conductor tracks connecting the components, (b2) stacking the document layers , (b3) non-releasably joining the first document layer and the at least one second document layer to form a compact module , (b1) providing a first document layer in the form of a circuit carrier layer supporting the electronic circuit and at least one second document layer , wherein the first document layer and the at least one second document layer are formed from a fibre composite material, wherein the circuit carrier layer carries or comprises a plurality of separately housed electronic components and conductor tracks connecting the components, (b2) stacking the document layers , (b3) non-releasably joining the first document layer and the at least one second document layer to form a compact module , (c) forming a recess complementary to the compact module on an outer side of the mobile token , (d) arranging the compact module in the recess in the mobile token and connecting to the mobile token .
A composition, comprising platelets and a RHOA inhibitor selected from: or salt thereof, or salt thereof, or combinations thereof; and an acceptable carrier.
Monolithic gas sensor arrangement configured as a humidity sensor arrangement, the sensor arrangement comprising - a sensor with a first transducer comprising a first sensitive layer and a second transducer comprising a second sensitive layer ; - wherein the first and the second sensitive layer are configured to absorb water molecules and are of different materials and/or of different thicknesses; and - a readout circuit that generates a first and a second measurement signal depending on the first and the second transducer , wherein the readout circuit comprises a memory and is configured to provide a result signal as a pre-defined function of the first and the second measurement signal and data stored in the memory , wherein the data stored in the memory comprises weight factors that are functions of the first and/or the second measurement signal and which are used to generate the result signal as a weighted mean of the first and the second measurement signal, characterised in that equal weight factors for the first and the second measurement signal RH 1 , RH 2 are used in order to obtain an initial estimate RH init of a relative humidity, RH init = 1 2 RH 1 + 1 2 RH 2 , and, using the initial estimate RH init , an updated estimate for the relative humidity RH is obtained via the equation: RH = C 1 RH init RH 1 + C 2 RH init RH 2 , wherein C 1 ( RH init ) is a first optimal weight factor and depends on the relative humidity and C 2 ( RH init ) is a second optimal weight factor and depends on the relative humidity. - a sensor with a first transducer comprising a first sensitive layer and a second transducer comprising a second sensitive layer ; - wherein the first and the second sensitive layer are configured to absorb water molecules and are of different materials and/or of different thicknesses; and - a readout circuit that generates a first and a second measurement signal depending on the first and the second transducer , wherein the readout circuit comprises a memory and is configured to provide a result signal as a pre-defined function of the first and the second measurement signal and data stored in the memory , wherein the data stored in the memory comprises weight factors that are functions of the first and/or the second measurement signal and which are used to generate the result signal as a weighted mean of the first and the second measurement signal, characterised in that equal weight factors for the first and the second measurement signal RH 1 , RH 2 are used in order to obtain an initial estimate RH init of a relative humidity, RH init = 1 2 RH 1 + 1 2 RH 2 , and, using the initial estimate RH init , an updated estimate for the relative humidity RH is obtained via the equation: RH = C 1 RH init RH 1 + C 2 RH init RH 2 , wherein C 1 ( RH init ) is a first optimal weight factor and depends on the relative humidity and C 2 ( RH init ) is a second optimal weight factor and depends on the relative humidity.
Method for producing a resistor assembly for a battery sensor , comprising a first connection element , a second connection element and a resistor element which electrically connects the first connection element and the second connection element to one another, wherein the first connection element and/or the second connection element have/has a first connection area and the resistor element has at least one second connection area , wherein the second connection area is provided on a projection which has, in particular, two mounting positions for the first connection area , comprising the following steps: - providing the first connection element and/or the second connection element and also the resistor element , - orienting the first connection element and/or the second connection element , so that the first connection area each rest on a second connection area in one of the mounting positions, and - welding the first connection area to the second connection area by at least partially melting and then curing the first connection area or the second connection area . - providing the first connection element and/or the second connection element and also the resistor element , - orienting the first connection element and/or the second connection element , so that the first connection area each rest on a second connection area in one of the mounting positions, and - welding the first connection area to the second connection area by at least partially melting and then curing the first connection area or the second connection area .
Inspection method for optical transmitted-light inspection of unlabelled containers, in particular empty and/or filled bottles, the containers being transported by a transport device to at least one inspection position between a luminescent screen and at least one camera , being transilluminated by the at least one luminescent screen and captured from different viewing directions in segment images by the at least one camera and being evaluated by image processing , characterised in that, the captured segment images, prior to evaluation, are combined to form a single panoramic image data set in such a way that overlapping regions of the segment images are congruently merged together in the panoramic image data set .
A balustrade comprising safety-relevant glass components , wherein each glass component comprises at least one glass pane and an edge protection attachment for protecting a free glass edge of safety-relevant glass components, wherein the edge protection attachment is arranged on at least one free glass edge of the glass component , characterised in that the edge protection attachment is formed from glass, wherein a film layer is formed between the free glass edge of the glass component and the edge protection attachment , and the edge protection attachment is laminated by means of the film layer onto at least one free glass edge of the glass component .
Device for blocking an access to a storage location containing valuable goods , said access being disposed behind the entrance door of said storage location and comprising at least a floor and two opposing vertical walls , said device being characterised in that it comprises at least: - a frame arranged to rest on said floor between said vertical walls , - a rear panel secured to the rear of one of the side faces of the frame and movable between a "deployed" position in which each rear panel extends substantially perpendicular to said side faces and a "retracted" position in which each rear panel does not extend substantially perpendicular to said side face and, - rear securing means for holding each rear panel in the "deployed" position and immobilise said frame relative to the access of said storage location , said device being, when each rear panel is in the "retracted" position, in a "passage" configuration releasing the access and, when said rear panel is in the "deployed" position, in a "blocking" configuration, blocking the access and forming an security barrier. - a frame arranged to rest on said floor between said vertical walls , - a rear panel secured to the rear of one of the side faces of the frame and movable between a "deployed" position in which each rear panel extends substantially perpendicular to said side faces and a "retracted" position in which each rear panel does not extend substantially perpendicular to said side face and, - rear securing means for holding each rear panel in the "deployed" position and immobilise said frame relative to the access of said storage location ,
A machining method using a working machine comprising: a first step of selecting a component of a tool ; a second step of assembling the component selected in the first step to the working machine; a third step of imaging the tool assembled in the second step; a fourth step of determining, by collating a collation image, which is prepared in advance from an image of a tool having a correct component correctly assembled therein, with an image captured after assembly in the third step, whether or not a desired tool has been assembled to the working machine; and performing a predetermined machining operation using the working machine if the tool is determined as the desired one. a first step of selecting a component of a tool ; a second step of assembling the component selected in the first step to the working machine; a third step of imaging the tool assembled in the second step; a fourth step of determining, by collating a collation image, which is prepared in advance from an image of a tool having a correct component correctly assembled therein, with an image captured after assembly in the third step, whether or not a desired tool has been assembled to the working machine; and performing a predetermined machining operation using the working machine if the tool is determined as the desired one.
An applicator , comprising: (a) a rigid, planar plate member with an upper surface and a lower surface , the plate member having at least one opening therethrough; (b) a blocking element in contact with the upper surface of the plate member and being capable of moving between a first position and a second position ; (c) a plunger having a proximal end , a distal end on which at least one microprojection is retained, and a shaft extending therebetween, at least a portion of the proximal end rests on and is at least partially retained by the blocking element in its first position, wherein the plunger is slidably disposed within the opening of the rigid planar plate member; (d) an energy-storing element positioned between the lower surface of the plate member and the distal end of the plunger; and (e) an actuating member having an external surface for application of a force, and having at least one surface in mechanical communication with the blocking element, wherein the actuating member moves the blocking element from its first position to its second position when a force is applied to the external surface of the actuating member, thereby to effect release of the plunger and the energy-storing element. (a) a rigid, planar plate member with an upper surface and a lower surface , the plate member having at least one opening therethrough; (b) a blocking element in contact with the upper surface of the plate member and being capable of moving between a first position and a second position ; (c) a plunger having a proximal end , a distal end on which at least one microprojection is retained, and a shaft extending therebetween, at least a portion of the proximal end rests on and is at least partially retained by the blocking element in its first position, wherein the plunger is slidably disposed within the opening of the rigid planar plate member; (d) an energy-storing element positioned between the lower surface of the plate member and the distal end of the plunger; and (e) an actuating member having an external surface for application of a force, and having at least one surface in mechanical communication with the blocking element, wherein the actuating member moves the blocking element from its first position to its second position when a force is applied to the external surface of the actuating member, thereby to effect release of the plunger and the energy-storing element.
A wrought aluminum alloy product having a thickness of at least 12.7 mm, the aluminum alloy consisting of: from 3.00 to 3.80 wt. % Cu; from 0.05 to 0.35 wt. % Mg; from 0.975 to 1.385 wt. % Li; wherein -0.3*Mg-0.15Cu +1.65 ≤ Li ≤ -0.3*Mg-0.15Cu +1.85; from 0.05 to 0.50 wt. % of at least one grain structure control element, wherein the at least one grain structure control element is selected from the group consisting of Zr, Sc, Cr, V, Hf, other rare earth elements, and combinations thereof; up to 1.0 wt. % Zn; up to 1.0 wt. % Mn; up to 0.10 wt. % Si; up to 0.12 wt. % Fe; up to 0.15 wt. % Ti; up to 0.10 wt. % of any other element, with the total of these other elements not exceeding 0.35 wt. %; and the balance being aluminum. from 3.00 to 3.80 wt. % Cu; from 0.05 to 0.35 wt. % Mg; from 0.975 to 1.385 wt. % Li; wherein -0.3*Mg-0.15Cu +1.65 ≤ Li ≤ -0.3*Mg-0.15Cu +1.85; from 0.05 to 0.50 wt. % of at least one grain structure control element, wherein the at least one grain structure control element is selected from the group consisting of Zr, Sc, Cr, V, Hf, other rare earth elements, and combinations thereof; up to 1.0 wt. % Zn; up to 1.0 wt. % Mn; up to 0.10 wt. % Si; up to 0.12 wt. % Fe; up to 0.15 wt. % Ti; up to 0.10 wt. % of any other element, with the total of these other elements not exceeding 0.35 wt. %; and the balance being aluminum.