mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: a computer readable memory ; an XMSS operations logic to manage XMSS functions; a chain function controller to manage chain function algorithms; a secure hash algorithm-2, SHA2, accelerator ; a secure hash algorithm-3, SHA3, accelerator ; and a register bank shared between the SHA2 accelerator and the SHA3 accelerator; wherein the SHA3 accelerator is configurable to perform a SHAKE-128 function and comprises: a 1600 bit state register configured to receive a first set of inputs for each Winternitz One-Time Signature, WOTS, chain function, a second set of inputs for hashes involved in an L-Tree computation, and a third set of inputs for a Merkle tree root node computation; and logic configured to: receive a 256 bit message input; perform a set of 24 SHA3 rounds; and generate a 128 bit output. a computer readable memory ; an XMSS operations logic to manage XMSS functions; a chain function controller to manage chain function algorithms; a secure hash algorithm-2, SHA2, accelerator ; a secure hash algorithm-3, SHA3, accelerator ; and a register bank shared between the SHA2 accelerator and the SHA3 accelerator; wherein the SHA3 accelerator is configurable to perform a SHAKE-128 function and comprises: a 1600 bit state register configured to receive a first set of inputs for each Winternitz One-Time Signature, WOTS, chain function, a second set of inputs for hashes involved in an L-Tree computation, and a third set of inputs for a Merkle tree root node computation; and logic configured to: receive a 256 bit message input; perform a set of 24 SHA3 rounds; and generate a 128 bit output. a 1600 bit state register configured to receive a first set of inputs for each Winternitz One-Time Signature, WOTS, chain function, a second set of inputs for hashes involved in an L-Tree computation, and a third set of inputs for a Merkle tree root node computation; and logic configured to: receive a 256 bit message input; perform a set of 24 SHA3 rounds; and generate a 128 bit output. receive a 256 bit message input; perform a set of 24 SHA3 rounds; and generate a 128 bit output.
A storage controller for writing first data to a first memory cell (MC1) by performing programming of the first memory cell (MC1) N-times, N being a positive integer greater than 1, the storage controller (210; 1310a; 1310b; 3251_1) comprising: a write amplification, WAF, manager configured to check whether the first data is invalid data before an N th programming of the first memory cell (MC1) is performed; and a central processing unit, CPU, configured not to perform the N-th programming of the first memory cell (MC1) when the first data is the invalid data, the storage controller (210; 1310a; 1310b; 3251_1) being adapted so that second data is written to a second memory cell (MC2) connected to a same word line (WL) as the first memory cell (MC1) by performing programming of the second memory cell (MC2) N-times, and so that when the first data is the invalid data, the N th programming of the first memory cell (MC1) is not performed and the N th programming of the second memory cell (MC2) is performed to write the second data. a write amplification, WAF, manager configured to check whether the first data is invalid data before an N th programming of the first memory cell (MC1) is performed; and a central processing unit, CPU, configured not to perform the N-th programming of the first memory cell (MC1) when the first data is the invalid data, the storage controller (210; 1310a; 1310b; 3251_1) being adapted so that second data is written to a second memory cell (MC2) connected to a same word line (WL) as the first memory cell (MC1) by performing programming of the second memory cell (MC2) N-times, and so that when the first data is the invalid data, the N th programming of the first memory cell (MC1) is not performed and the N th programming of the second memory cell (MC2) is performed to write the second data.
A method comprising: receiving telemetry information for a computer network , the telemetry information comprising network device state information for internetworking devices in the computer network and network traffic flow information for data packet flows through the computer network ; transforming the telemetry information into a temporal graph that is digitally stored in computer memory, the temporal graph comprising a plurality of versions of a plurality of graph elements, the graph elements including a plurality of vertices representing the internetworking devices and a plurality of edges representing the data packet flows, wherein each version of each graph element corresponds to a state of the graph element at a particular time, and wherein the temporal graph comprises a temporal link from a first version of each graph element to a previous or subsequent version of the graph element; receiving, from a client computing device , a request for network analytics information for the computer network ; in response to receiving the request for network analytics information, traversing the temporal link to retrieve the previous or subsequent version of the graph element, retrieving temporal graph data based on the traversing, and generating network analytics information for the computer network based on the retrieved temporal graph data; and sending the network analytics information to the client computing device . receiving telemetry information for a computer network , the telemetry information comprising network device state information for internetworking devices in the computer network and network traffic flow information for data packet flows through the computer network ; transforming the telemetry information into a temporal graph that is digitally stored in computer memory, the temporal graph comprising a plurality of versions of a plurality of graph elements, the graph elements including a plurality of vertices representing the internetworking devices and a plurality of edges representing the data packet flows, wherein each version of each graph element corresponds to a state of the graph element at a particular time, and wherein the temporal graph comprises a temporal link from a first version of each graph element to a previous or subsequent version of the graph element; receiving, from a client computing device , a request for network analytics information for the computer network ; in response to receiving the request for network analytics information, traversing the temporal link to retrieve the previous or subsequent version of the graph element, retrieving temporal graph data based on the traversing, and generating network analytics information for the computer network based on the retrieved temporal graph data; and sending the network analytics information to the client computing device .
A measurement apparatus comprising: - a high frequency measurement unit and a test interface unit connected to said high frequency measurement unit , said high frequency measurement unit adapted to measure high frequency parameters (HFP) of a device under test (DUT) connected via test ports (P) of said measurement apparatus to the test interface unit and - a multimeter unit and a control bus interface connected to said multimeter unit , said multimeter unit adapted to measure DC characteristics (DCP) of said device under test (DUT) connected via control signal lines (CL) to the control bus interface ; wherein the measurement apparatus is configured to perform a measurement of said DC characteristics (DCP) by said multimeter unit and a measurement of said high frequency parameters (HFP) by said high frequency measurement unit simultaneously. - a high frequency measurement unit and a test interface unit connected to said high frequency measurement unit , said high frequency measurement unit adapted to measure high frequency parameters (HFP) of a device under test (DUT) connected via test ports (P) of said measurement apparatus to the test interface unit and - a multimeter unit and a control bus interface connected to said multimeter unit , said multimeter unit adapted to measure DC characteristics (DCP) of said device under test (DUT) connected via control signal lines (CL) to the control bus interface ;
A method for operating a head mounted display , HMD, the method comprising: detecting at least one characteristic of an object in a vicinity of the HMD ; determining whether the at least one characteristic matches a predetermined criterion set in the HMD ; and displaying an alert on the HMD in response to the determination; wherein the determining of whether the at least one characteristic matches a predetermined criterion comprises: calculating whether the object will enter a zone having a predefined range centered on a position of a user of the HMD ; wherein at least one of the predefined range, the at least one characteristic and the predetermined criterion is set based on an operational mode selected among a plurality of operational modes, and wherein the operational mode is selected based on: identifying, by the HMD , a WiFi access point with which the HMD is communicating, or visually recognizing, by the HMD , a home environment or a work environment. detecting at least one characteristic of an object in a vicinity of the HMD ; determining whether the at least one characteristic matches a predetermined criterion set in the HMD ; and displaying an alert on the HMD in response to the determination; wherein the determining of whether the at least one characteristic matches a predetermined criterion comprises: calculating whether the object will enter a zone having a predefined range centered on a position of a user of the HMD ; wherein at least one of the predefined range, the at least one characteristic and the predetermined criterion is set based on an operational mode selected among a plurality of operational modes, and wherein the operational mode is selected based on: identifying, by the HMD , a WiFi access point with which the HMD is communicating, or visually recognizing, by the HMD , a home environment or a work environment. calculating whether the object will enter a zone having a predefined range centered on a position of a user of the HMD ; wherein at least one of the predefined range, the at least one characteristic and the predetermined criterion is set based on an operational mode selected among a plurality of operational modes, and wherein the operational mode is selected based on: identifying, by the HMD , a WiFi access point with which the HMD is communicating, or visually recognizing, by the HMD , a home environment or a work environment. identifying, by the HMD , a WiFi access point with which the HMD is communicating, or visually recognizing, by the HMD , a home environment or a work environment.
A controller of a software defined network, SDN, , comprising: a processing module , configured to determine control routing protocol, CRP, routing entry information, wherein the CRP routing entry information comprises a mapping relationship between a route prefix and an address of a first next hop of a network device of the SDN , wherein the processing module is further configured to generate a first message, wherein the first message carries the CRP routing entry information, and is used to advertise a CRP route prefixed with the route prefix in the CRP routing entry information, the first message comprises first identification information, and the first identification information is used to instruct the network device to store the CRP routing entry information into a CRP routing table of the network device, wherein the CRP routing table is a separate routing table specifically used to store separately the CRP route advertised by the controller using CRP and is distinguished from a routing table used to store a route advertised by another network device of the SDN using a routing protocol between the network device and the other network device, the CRP being a protocol that is run between the controller and the network device and that allows the controller to advertise the CRP route to the network device; and a sending module , configured to send the first message to the network device, so that the network device stores the CRP routing entry information into the CRP routing table based on the first identification information, and directs packet forwarding based on the CRP routing table. a processing module , configured to determine control routing protocol, CRP, routing entry information, wherein the CRP routing entry information comprises a mapping relationship between a route prefix and an address of a first next hop of a network device of the SDN , wherein the processing module is further configured to generate a first message, wherein the first message carries the CRP routing entry information, and is used to advertise a CRP route prefixed with the route prefix in the CRP routing entry information, the first message comprises first identification information, and the first identification information is used to instruct the network device to store the CRP routing entry information into a CRP routing table of the network device, wherein the CRP routing table is a separate routing table specifically used to store separately the CRP route advertised by the controller using CRP and is distinguished from a routing table used to store a route advertised by another network device of the SDN using a routing protocol between the network device and the other network device, the CRP being a protocol that is run between the controller and the network device and that allows the controller to advertise the CRP route to the network device; and a sending module , configured to send the first message to the network device, so that the network device stores the CRP routing entry information into the CRP routing table based on the first identification information, and directs packet forwarding based on the CRP routing table.
A printhead , comprising a plurality of nozzles configured to eject ink drops of different sizes wherein a low drop weight, LDW, drop is ejected through a nozzle with a circular bore, CB, and a high drop weight, HDW, drop is ejected through a nozzle with a non-circular bore, NCB, characterised in that the nozzle with the NCB is in the shape of a two-lobed polynomial ellipse.
Medical fluid transfer device for the fluid-tightly sealed transfer of a medical fluid (F) which is hazardous to health, comprising a first connector section , which has a first passage and is provided for fluid-tight connection to a medical syringe, a second connector section , which has a second passage and a third passage and is provided for fluid-tight connection to a medical fluid container , a fluid channel extending between the first passage and the second passage , which - in a state of the fluid transfer device connected to the syringe and the medical fluid container - allows a fluid-conducting transfer of the medical fluid (F) between the syringe and the medical fluid container , and a compensation container with a fluid-tight and variable-volume compensation volume which - in the connected state of the fluid transfer device - is connected to the medical fluid container in a fluid-conducting manner by means of the third passage , and which is designed to receive a volume of gas displaced from the medical fluid container during the transfer of the medical fluid (F), characterized in that the first passage and the second passage are connected to one another in a fluid-conducting manner via the compensation volume , the compensation volume forming a fluid channel section of the fluid channel . a first connector section , which has a first passage and is provided for fluid-tight connection to a medical syringe, a second connector section , which has a second passage and a third passage and is provided for fluid-tight connection to a medical fluid container , a fluid channel extending between the first passage and the second passage , which - in a state of the fluid transfer device connected to the syringe and the medical fluid container - allows a fluid-conducting transfer of the medical fluid (F) between the syringe and the medical fluid container , and a compensation container with a fluid-tight and variable-volume compensation volume which - in the connected state of the fluid transfer device - is connected to the medical fluid container in a fluid-conducting manner by means of the third passage , and which is designed to receive a volume of gas displaced from the medical fluid container during the transfer of the medical fluid (F), characterized in that the first passage and the second passage are connected to one another in a fluid-conducting manner via the compensation volume , the compensation volume forming a fluid channel section of the fluid channel .
Method for detecting damage to a bearing in a bearing carrier housing of a fluid-conducting device in the form of a pump assembly, - wherein at least one odour sensor detects an odorous substance produced by the bearing and transmits an odour profile of the odorous substance to an evaluation unit , - wherein the evaluation unit compares the odour profile with one or more characteristic odour profiles, - wherein an output signal is generated in an output unit if the odour sensor detects a characteristic odour profile, characterized in that - the at least one odour sensor is arranged fixedly in the bearing carrier housing of the fluid-conducting device in the form of a pump assembly. - wherein at least one odour sensor detects an odorous substance produced by the bearing and transmits an odour profile of the odorous substance to an evaluation unit , - wherein the evaluation unit compares the odour profile with one or more characteristic odour profiles, - wherein an output signal is generated in an output unit if the odour sensor detects a characteristic odour profile, characterized in that - the at least one odour sensor is arranged fixedly in the bearing carrier housing of the fluid-conducting device in the form of a pump assembly.
A printhead maintenance system comprising: an elongate inkjet printhead having a nozzle face containing a plurality of inkjet nozzles; a carriage movable longitudinally along the printhead in a cleaning direction, the carriage including a maintenance member comprising: a fluid bath having a mouth opposing the nozzle face of the printhead, a primary fluid inlet at an upstream end of the fluid bath relative to the cleaning direction and a fluid outlet at a downstream end of the fluid bath relative to the cleaning direction; and a traversing mechanism for traversing the carriage longitudinally along the printhead in the cleaning direction, wherein: the maintenance member does not contact inkjet nozzles of the printhead; and the fluid bath is configured to provide a greater fluid velocity at the downstream end relative to the upstream end, characterized in that : the maintenance member has a pair of wipers flanking the fluid bath. an elongate inkjet printhead having a nozzle face containing a plurality of inkjet nozzles; a carriage movable longitudinally along the printhead in a cleaning direction, the carriage including a maintenance member comprising: a fluid bath having a mouth opposing the nozzle face of the printhead, a primary fluid inlet at an upstream end of the fluid bath relative to the cleaning direction and a fluid outlet at a downstream end of the fluid bath relative to the cleaning direction; and a traversing mechanism for traversing the carriage longitudinally along the printhead in the cleaning direction, the maintenance member does not contact inkjet nozzles of the printhead; and the fluid bath is configured to provide a greater fluid velocity at the downstream end relative to the upstream end,
An analytical apparatus for automatically carrying out a plurality of steps, the apparatus comprising: a tube selector for automatically selecting a first sampling tube (L) from a plurality of sampling tubes stored within an autosampler; a release device for automatically releasing a sample from the first sampling tube (L) to provide a released sample; an analyser for automatically analysing a first portion of the released sample; and a re-collection device; characterised in that the re-collection device is arranged to automatically collect a second portion of the released sample on a sorbent material contained either in: a) the first sampling tube (L); or in b) a collecting tube selected automatically from said plurality of sampling tubes with which the first sampling tube (L) is replaced by the collecting tube within the autosampler . a tube selector for automatically selecting a first sampling tube (L) from a plurality of sampling tubes stored within an autosampler; a release device for automatically releasing a sample from the first sampling tube (L) to provide a released sample; an analyser for automatically analysing a first portion of the released sample; and a re-collection device; characterised in that the re-collection device is arranged to automatically collect a second portion of the released sample on a sorbent material contained either in: a) the first sampling tube (L); or in b) a collecting tube selected automatically from said plurality of sampling tubes with which the first sampling tube (L) is replaced by the collecting tube within the autosampler . a) the first sampling tube (L); or in b) a collecting tube selected automatically from said plurality of sampling tubes with which the first sampling tube (L) is replaced by the collecting tube within the autosampler .
A semiconductor device comprising: a substrate ; an insulating film formed of a dielectric material and provided on a surface of the substrate ; a porous sensing film formed of a conductive material deposited on top of the insulating film , the sensing film defining at least one conductive path between a first position and a second position on the insulating film ; a first circuit connection electrically connected to the sensing film at the first position; a second circuit connection electrically connected to the sensing film at the second position; and a control circuit operatively connected to the first circuit connection and the second circuit connection and configured to measure an electrical resistance therebetween; wherein the sensing film has a thickness that enables a resistivity of the sensing film to be altered in a manner that is dependent on ambient moisture content; wherein the sensing film is configured to form a resistive circuit element between the first circuit connection and the second circuit connection with an electrical resistance that varies with ambient moisture; wherein the sensing film is patterned into strips such as to include a plurality of gaps between the strips extending down to the insulating film . a substrate ; an insulating film formed of a dielectric material and provided on a surface of the substrate ; a porous sensing film formed of a conductive material deposited on top of the insulating film , the sensing film defining at least one conductive path between a first position and a second position on the insulating film ; a first circuit connection electrically connected to the sensing film at the first position; a second circuit connection electrically connected to the sensing film at the second position; and a control circuit operatively connected to the first circuit connection and the second circuit connection and configured to measure an electrical resistance therebetween; wherein the sensing film has a thickness that enables a resistivity of the sensing film to be altered in a manner that is dependent on ambient moisture content; wherein the sensing film is configured to form a resistive circuit element between the first circuit connection and the second circuit connection with an electrical resistance that varies with ambient moisture; wherein the sensing film is patterned into strips such as to include a plurality of gaps between the strips extending down to the insulating film .
Lifting tipper with a discharge device for the discharge of a compact food mass from a kneading vat arranged in the lifting tipper , characterized in that the discharge device has at least two cutting tools which each have at least two cutting edges .