mhurhangee/patent-ind-claim-en huggingface dataset:
Circuit arrangement for universal input / output having at least one interface module having an analog-to-digital converter (A/D) with an input channel and with an output port, a digital-to-analog converter (D/A) with an input port and with an output channel, a first connection point (IOX01), an amplifier with a non-inverting input channel, and a switching network with a plurality of switches (S0 ... S21, T1 ... T3), wherein the output channel of the digital-to-analog converter (D/A) connects either directly or via a sample-and-hold element to the non-inverting input channel of the amplifier , wherein the switching network (S5) is configured to connect the analog-to-digital converter (A/D) either directly or via a program-controlled scaling apparatus to the first connection point (IOX01), characterized in that wherein upon connection of the analog-to-digital converter (A/D) to the first connection point (IOX01) the analog-to-digital converter (A/D) is configured to convert a first analog voltage at the first connection point (IOX01) into a digital representation of said first analog voltage and to output said digital representation at its output port, wherein the circuit arrangement is configured to transfer said digital representation from the output port of the analog-to-digital converter (A/D) to the input port of the digital-to-analog converter (D/A), wherein to facilitate said transfer the circuit arrangement provides a bus connecting the output port of the analog-to-digital converter (A/D) to the input port of the digital-to-analog converter (D/A) and / or the circuit arrangement provides a register configured to be written by the analog-to-digital converter (A/D) and configured to be read by the digital-to-analog converter (D/A), wherein upon completion of said transfer the digital-to-analog converter (D/A) is configured to convert said digital representation at its input port into a second analog voltage, such that said second analog voltage is the same or substantially the same as said first analog voltage.
A method for the simultaneous projection of individual images for a plurality M of viewers, wherein each image B m, m=1, ..., M, is respectively either a partial image T m a , a ∈ {left, right} for a right eye and a left eye of the viewer m for a viewer m or is a partial image T m a=both for both eyes of a viewer m; wherein each partial image T m a is assembled from N, N ∈ N and N ≥ 2, color components F m a c , c = 1,..., N of different colors; wherein N projectors P n , n = 1, ..., N, in each case project the color components of the part images in temporally consecutive time intervals t i ; wherein each projector projects all N colors of the color components periodically temporally in a fixed order after one another; wherein the N projectors together project all the color components F m a c , c = 1, ..., N, of a partial image T m a for one or both eyes a of one of the viewers m in every time interval t i ; and project all the partial images T m a of both eyes a of all the viewers m once in the course of a period; wherein a filter that can be switched between transparent and opaque is assigned to each eye a, a ∈ (left, right, both) of each viewer; and wherein the respective filter assigned to the eye a of the viewer m is switched to transparent in the time interval t i in which the projectors display the color components of the partial image T m a . wherein each image B m, m=1, ..., M, is respectively either a partial image T m a , a ∈ {left, right} for a right eye and a left eye of the viewer m for a viewer m or is a partial image T m a=both for both eyes of a viewer m; wherein each partial image T m a is assembled from N, N ∈ N and N ≥ 2, color components F m a c , c = 1,..., N of different colors; wherein N projectors P n , n = 1, ..., N, in each case project the color components of the part images in temporally consecutive time intervals t i ; wherein each projector projects all N colors of the color components periodically temporally in a fixed order after one another; wherein the N projectors together project all the color components F m a c , c = 1, ..., N, of a partial image T m a for one or both eyes a of one of the viewers m in every time interval t i ; and project all the partial images T m a of both eyes a of all the viewers m once in the course of a period; wherein a filter that can be switched between transparent and opaque is assigned to each eye a, a ∈ (left, right, both) of each viewer; and wherein the respective filter assigned to the eye a of the viewer m is switched to transparent in the time interval t i in which the projectors display the color components of the partial image T m a .
A targeting lipid having a structure shown in formula (I) wherein: L A is q is 0-20; P and T are each independently for each occurrence absent, NR', O, S, C(O), OC(O), C(O)O, NHC(O), C(O)NH, NHCH 2 , CH 2 , CH 2 NH or CH 2 O, NHCH(R a )C(O), -C(O)-CH(R a )-NH-, CO, CH=N-O, CH 2 S, urea, heterocycle, heteroaryl, Q is independently for each occurrence absent, -(CH 2 ) n -, -C(R')(R")(CH 2 ) n -, -(CH 2 ) m C(R')(R")-, -(CH 2 CH 2 O)pCH 2 CH 2 -, or -(CH 2 CH 2 O)pCH 2 CH 2 NH-; L B is or or R is independently for each occurrence absent, CO, NH, NR', O, S, C(O), OC(O), C(O)O, NHC(O), C(O)NH, NHCH 2 , CH 2 , CH 2 NH or CH 2 O, NHCH(R a )C(O), -C(O)-CH(R a )-NH-, CO, CH=N-O, R' and R" are each independently H, CH 3 , OH, SH, NH 2 , NR 10 R 20 , alkyl, alkenyl or alkynyl; R a is H or amino acid side chain; R 10 and R 20 are each independently alkyl, alkenyl or alkynyl; m represent independently for each occurrence 0-50; n represent independently for each occurrence 1-20; and p represent independently for each occurrence 0-50. R a is H or amino acid side chain; R 10 and R 20 are each independently alkyl, alkenyl or alkynyl; m represent independently for each occurrence 0-50; n represent independently for each occurrence 1-20; and p represent independently for each occurrence 0-50.
A bone plate , comprising: a body ; a first and second appendage (30a-b) extending from the body, the first and second appendage being separated by a recess , wherein the body and first and second appendage define a bone contacting surface of the bone plate, the bone contacting surface being concavely curved; a protrusion extending from the body and having a first and second passageway extending therethrough; and third and fourth passageways extending through the body of the bone plate between the bone contacting surface and a back side surface of the body, wherein the third and fourth passageways extend vertically along a superior-inferior direction, and wherein the third and fourth passageways intersect the recess. a body ; a first and second appendage (30a-b) extending from the body, the first and second appendage being separated by a recess , wherein the body and first and second appendage define a bone contacting surface of the bone plate, the bone contacting surface being concavely curved; a protrusion extending from the body and having a first and second passageway extending therethrough; and third and fourth passageways extending through the body of the bone plate between the bone contacting surface and a back side surface of the body, wherein the third and fourth passageways extend vertically along a superior-inferior direction, and wherein the third and fourth passageways intersect the recess.
An implantable drug delivery device comprising: an inner core comprising oxybutynin distributed throughout a first water-insoluble polymer, wherein the first water-insoluble polymer is an ethylene vinyl acetate polymer with 10-90 wt% of vinyl acetate, based on the total weight of the ethylene vinyl acetate polymer; an intermediate coating positioned around the inner core, said intermediate coating comprising an acrylate polymer; and an outer coating positioned around the intermediate coating, said outer coating comprising a second water-insoluble polymer, wherein the second water-insoluble polymer comprises an ethylene vinyl acetate polymer with 10-90 wt% of vinyl acetate, based on the total weight of the ethylene vinyl acetate polymer; wherein the acrylate polymer is formed from one or more monomers of formula (I): wherein R 1 is selected from H, alkyl, alkenyl, alkynyl, or aryl; and R 2 is selected from H or alkyl. an inner core comprising oxybutynin distributed throughout a first water-insoluble polymer, wherein the first water-insoluble polymer is an ethylene vinyl acetate polymer with 10-90 wt% of vinyl acetate, based on the total weight of the ethylene vinyl acetate polymer; an intermediate coating positioned around the inner core, said intermediate coating comprising an acrylate polymer; and an outer coating positioned around the intermediate coating, said outer coating comprising a second water-insoluble polymer, wherein the second water-insoluble polymer comprises an ethylene vinyl acetate polymer with 10-90 wt% of vinyl acetate, based on the total weight of the ethylene vinyl acetate polymer; wherein the acrylate polymer is formed from one or more monomers of formula (I):
Computer-implemented method for prediction of the targeting efficiency of guides comprising guide RNA (gRNA) targeting a gene of interest, said guides locating a respective gene of interest as a target in a gene sequence, by evaluating data provided by screens, the screens providing levels of targeting characteristics efficiency of guides comprising the level of targeting efficiency confounded with gene-specific effects, the method characterized by the steps of a) Selecting a set of guides along with a first set of gene intrinsic features related to their respective gene of interest, and a second set of guide features; b) Inputting the selected first set of gene intrinsic features and the selected second set of guide features into an automated machine learning algorithm and c) Calculating an estimate of targeting efficiency of said selected guides by use of the automated machine learning algorithm, characterised in that the automated machine learning algorithm comprising two models being separately trained from each other, wherein the first of the two models using the selected first set of gene intrinsic features and the second of the two models using the selected second set of guide features, and wherein the automated learning algorithm combines the two models with the result of a prediction of the depletion of the guides targeting the gene of interest. a) Selecting a set of guides along with a first set of gene intrinsic features related to their respective gene of interest, and a second set of guide features; b) Inputting the selected first set of gene intrinsic features and the selected second set of guide features into an automated machine learning algorithm and c) Calculating an estimate of targeting efficiency of said selected guides by use of the automated machine learning algorithm,
An electrical harness assembly for use with a restraint system for activation of devices for vehicle restraint systems having an electronic control unit, ECU, connector connected with a restraint system controller by a connecting cable, the assembly comprising: a connector housing including an ECU terminal configured to receive a control signal from the ECU connector conductively connected to a circuit disposed within the connector housing; the circuit defining a first and a second loop, each loop being defined as conductively connecting to the ECU terminal and each having an electrical component to limit the flow of current in opposing directions with respect to the ECU terminal ; and the first loop including a first device connector and the second loop including a second device connector ; the electrical harness assembly characterised in that : a first set of conductive wires is part of the first loop and extend from the connector housing to the first device connector , the first device connector and the connector housing being physically separated; and a second set of conductive wires are part of the second loop and extend from the connector housing to the second device connector , the second device connector and the connector housing being physically separated. a connector housing including an ECU terminal configured to receive a control signal from the ECU connector conductively connected to a circuit disposed within the connector housing; the circuit defining a first and a second loop, each loop being defined as conductively connecting to the ECU terminal and each having an electrical component to limit the flow of current in opposing directions with respect to the ECU terminal ; and the first loop including a first device connector and the second loop including a second device connector ; the electrical harness assembly characterised in that : a first set of conductive wires is part of the first loop and extend from the connector housing to the first device connector , the first device connector and the connector housing being physically separated; and a second set of conductive wires are part of the second loop and extend from the connector housing to the second device connector , the second device connector and the connector housing being physically separated. a first set of conductive wires is part of the first loop and extend from the connector housing to the first device connector , the first device connector and the connector housing being physically separated; and a second set of conductive wires are part of the second loop and extend from the connector housing to the second device connector , the second device connector and the connector housing being physically separated.
A portable fluid collection apparatus comprising: a fluid reservoir for receiving fluid produced by a person; detection means for detecting a property of fluid within the fluid reservoir; processor means configured to receive data from the detection means and determine the level of fluid within the fluid reservoir; and signal means for producing an audible, visual, or tactile signal, wherein said processor means is configured to activate said signal means to produce said signal when the determined level of fluid within the fluid reservoir exceeds a predetermined threshold; wherein said detection means comprises means for measuring a property of fluid between a first position and a second position spaced from said first position ; characterised in that said processor means is configured to receive a data packet from the detection means a plurality of times per second and determine that the level of fluid within the fluid reservoir exceeds said predetermined threshold, and the processor means is further configured to only activate said signal means to produce a signal when said processor means determines that the level of fluid within the fluid reservoir exceeds said predetermined threshold over a predetermined number of successive data packets. a fluid reservoir for receiving fluid produced by a person; detection means for detecting a property of fluid within the fluid reservoir; processor means configured to receive data from the detection means and determine the level of fluid within the fluid reservoir; and signal means for producing an audible, visual, or tactile signal, wherein said processor means is configured to activate said signal means to produce said signal when the determined level of fluid within the fluid reservoir exceeds a predetermined threshold; wherein said detection means comprises means for measuring a property of fluid between a first position and a second position spaced from said first position ; characterised in that said processor means is configured to receive a data packet from the detection means a plurality of times per second and determine that the level of fluid within the fluid reservoir exceeds said predetermined threshold, and the processor means is further configured to only activate said signal means to produce a signal when said processor means determines that the level of fluid within the fluid reservoir exceeds said predetermined threshold over a predetermined number of successive data packets.
Equipment suitable for offering domain name resolution services, said equipment being intended to be connected to a communication network implementing security domains, said equipment being intended to be declared as domain name server to client devices in said communication network, said equipment including a client interface unit suitable for receiving (S301) domain name resolution requests from said client devices and for responding (S309) to said requests, each domain name resolution request including an IP address of the client device having sent said request and a domain name to be resolved; said equipment further including: - an authentication unit suitable for performing (S304) first authentication operations checking, for each domain name resolution request, at least using the IP address of the client device having sent said request, whether said client device or a user of said client device has been previously registered with said equipment or with an external authentication server to which said equipment is connected; - an authorisation unit suitable for performing (S305) first authorisation operations checking, for each resolution request for a domain name authenticated by the authentication unit, whether the client device having sent said request or the user of said client device effectively has right of access to the resources of said domain name; and - a domain name resolution unit suitable for performing (S306) domain name resolution operations using a cache in which said equipment stores associations of IP addresses and of respective domain names, said cache being populated (S307) using results of domain name resolutions performed by external name servers each corresponding to one of said security domains, to which said equipment is intended to be connected via respective secure tunnels and to which said equipment refers, independently of said security domains, when said cache does not include data making it possible to perform the requested domain name resolution. - an authentication unit suitable for performing (S304) first authentication operations checking, for each domain name resolution request, at least using the IP address of the client device having sent said request, whether said client device or a user of said client device has been previously registered with said equipment or with an external authentication server to which said equipment is connected; - an authorisation unit suitable for performing (S305) first authorisation operations checking, for each resolution request for a domain name authenticated by the authentication unit, whether the client device having sent said request or the user of said client device effectively has right of access to the resources of said domain name; and - a domain name resolution unit suitable for performing (S306) domain name resolution operations using a cache in which said equipment stores associations of IP addresses and of respective domain names,
Method for forming a protective layer on the surface of an implantable or implant component, the method comprising a) Applying a solution on the surface of the component; b) Drying the solution applied in step a) to form a protective layer on the surface of the component for dental applications; characterized in that the solution applied in step a) has a pH at 25°C of 3.6 to 6.0. a) Applying a solution on the surface of the component; b) Drying the solution applied in step a) to form a protective layer on the surface of the component for dental applications;
A process for producing magnesium and/or calcium-enriched drinking water based beverage, comprising the following steps sequence: i) preparing a concentrated aqueous solution of magnesium and/or calcium bicarbonate by, a) providing a powder of magnesium and/or calcium compound in a closed reactor ; b) adding an aqueous liquid in said closed reactor; and c) injecting carbon dioxide (CO 2 ) into said closed reactor; and ii) keeping the reactor with the concentrated aqueous solution of magnesium and/or calcium bicarbonate closed under a carbon dioxide atmosphere of at least 1.01 bar (1 atm) until at least part of the concentrated aqueous solution of magnesium and/or calcium bicarbonate is added into a flowing circuit comprising an aqueous liquid; and iii) further comprising measuring the electrical conductivity of the concentrated aqueous solution. i) preparing a concentrated aqueous solution of magnesium and/or calcium bicarbonate by, a) providing a powder of magnesium and/or calcium compound in a closed reactor ; b) adding an aqueous liquid in said closed reactor; and c) injecting carbon dioxide (CO 2 ) into said closed reactor; and a) providing a powder of magnesium and/or calcium compound in a closed reactor ; b) adding an aqueous liquid in said closed reactor; and c) injecting carbon dioxide (CO 2 ) into said closed reactor; and ii) keeping the reactor with the concentrated aqueous solution of magnesium and/or calcium bicarbonate closed under a carbon dioxide atmosphere of at least 1.01 bar (1 atm) until at least part of the concentrated aqueous solution of magnesium and/or calcium bicarbonate is added into a flowing circuit comprising an aqueous liquid; and iii) further comprising measuring the electrical conductivity of the concentrated aqueous solution.
A penetration device comprising: a casing ; a propellant positioned in the casing; and a flyer plate coupled to the casing and adjacent to the propellant, the flyer plate being configured to detach as a whole from the casing to be propelled or accelerated toward, into, and/or through an object, the flyer plate comprising: a center portion having a substantially constant first thickness ; and a peripheral portion around the center portion and defining an edge , the peripheral portion tapering from the first thickness to a second thickness at the edge, wherein the second thickness is less than the first thickness, wherein the center portion of the flyer plate comprises a first material having a first density , wherein the peripheral portion of the flyer plate comprises a second material having a second density , and wherein the first density is greater than the second density. a casing ; a propellant positioned in the casing; and a flyer plate coupled to the casing and adjacent to the propellant, the flyer plate being configured to detach as a whole from the casing to be propelled or accelerated toward, into, and/or through an object, the flyer plate comprising: a center portion having a substantially constant first thickness ; and a peripheral portion around the center portion and defining an edge , the peripheral portion tapering from the first thickness to a second thickness at the edge, wherein the second thickness is less than the first thickness, a center portion having a substantially constant first thickness ; and a peripheral portion around the center portion and defining an edge , the peripheral portion tapering from the first thickness to a second thickness at the edge, wherein the second thickness is less than the first thickness, wherein the center portion of the flyer plate comprises a first material having a first density , wherein the peripheral portion of the flyer plate comprises a second material having a second density , and wherein the first density is greater than the second density.
A system for remotely controlling access to an interface for an industrial equipment with a dongle , the system comprising: an authorizing workstation ; and a user workstation communicatively coupled to the authorizing workstation through a network ; wherein the user workstation is configured to write to the dongle a program code that includes a received dongle ID , the received dongle ID being provided to the authorizing workstation by the user workstation ; and wherein said program code is to be executed on said interface. an authorizing workstation ; and a user workstation communicatively coupled to the authorizing workstation through a network ; wherein the user workstation is configured to write to the dongle a program code that includes a received dongle ID , the received dongle ID being provided to the authorizing workstation by the user workstation ; and