mhurhangee/patent-ind-claim-en huggingface dataset:
An intravenous delivery system comprising: a drip unit comprising: an exterior wall shaped to at least partially define a drip chamber that receives a liquid from a liquid source , the exterior wall comprising a seat; an anti-run-dry membrane comprising a plurality of pores that are permeable to the liquid , wherein the anti-run-dry membrane is formed of a hydrophilic material configured to resist passage of air through the pores , the anti-run-dry membrane comprising an attachment surface ; and an attachment component that secures the attachment surface to the exterior wall, proximate the seat, wherein the attachment component comprises a secondary exterior wall that cooperates with the exterior wall to define the drip chamber , characterized in that the secondary exterior wall comprises an attachment feature shaped to mate with the exterior wall such that the exterior wall and the secondary exterior wall abut the anti-run-dry membrane to keep the anti-run-dry membrane in place. a drip unit comprising: an exterior wall shaped to at least partially define a drip chamber that receives a liquid from a liquid source , the exterior wall comprising a seat; an anti-run-dry membrane comprising a plurality of pores that are permeable to the liquid , wherein the anti-run-dry membrane is formed of a hydrophilic material configured to resist passage of air through the pores , the anti-run-dry membrane comprising an attachment surface ; and an attachment component that secures the attachment surface to the exterior wall, proximate the seat, wherein the attachment component comprises a secondary exterior wall that cooperates with the exterior wall to define the drip chamber , an exterior wall shaped to at least partially define a drip chamber that receives a liquid from a liquid source , the exterior wall comprising a seat; an anti-run-dry membrane comprising a plurality of pores that are permeable to the liquid , wherein the anti-run-dry membrane is formed of a hydrophilic material configured to resist passage of air through the pores , the anti-run-dry membrane comprising an attachment surface ; and an attachment component that secures the attachment surface to the exterior wall, proximate the seat, wherein the attachment component comprises a secondary exterior wall that cooperates with the exterior wall to define the drip chamber , characterized in that the secondary exterior wall comprises an attachment feature shaped to mate with the exterior wall such that the exterior wall and the secondary exterior wall abut the anti-run-dry membrane to keep the anti-run-dry membrane in place.
A method comprising: receiving, by a wireless device, a medium access control control element, MAC CE, indicating activation of a transmission configuration indicator, TCI, state, wherein the MAC CE comprises: a TCI state identifier, ID, of the TCI state; and a link indicator, wherein: a first value of the link indicator indicates that the TCI state ID is from a first list of one or more first TCI state IDs for downlink; and a second value of the link indicator indicates that the TCI state ID is from a second list of one or more second TCI state IDs for uplink; and communicating, with a base station, based on the TCI state indicated by the TCI state ID and the link indicator. receiving, by a wireless device, a medium access control control element, MAC CE, indicating activation of a transmission configuration indicator, TCI, state, wherein the MAC CE comprises: a TCI state identifier, ID, of the TCI state; and a link indicator, wherein: a first value of the link indicator indicates that the TCI state ID is from a first list of one or more first TCI state IDs for downlink; and a second value of the link indicator indicates that the TCI state ID is from a second list of one or more second TCI state IDs for uplink; and a TCI state identifier, ID, of the TCI state; and a link indicator, wherein: a first value of the link indicator indicates that the TCI state ID is from a first list of one or more first TCI state IDs for downlink; and a second value of the link indicator indicates that the TCI state ID is from a second list of one or more second TCI state IDs for uplink; and a first value of the link indicator indicates that the TCI state ID is from a first list of one or more first TCI state IDs for downlink; and a second value of the link indicator indicates that the TCI state ID is from a second list of one or more second TCI state IDs for uplink; and communicating, with a base station, based on the TCI state indicated by the TCI state ID and the link indicator.
A diagnostic apparatus for testing a milking point of a milking machine, the milking point comprising a set of teatcups , each of which is connected to a milk line of the milking machine, the diagnostic apparatus comprising: at least one sensor configured to measure at least one fluid-transport related parameter (P i , P 1 , P 2 , P 3 , P 4 , F i , F 1 , F 2 , F 3 , F 4 ) of the milking point, a set of test tubes , wherein each test tube is configured to be attached to one teatcup in the set of teatcups , and a controllable valve connected to each of the test tubes , the diagnostic apparatus being characterized in that the controllable valve being configured to, in response to a control signal (Ctrl), selectively arrange a particular one of the test tubes for measurement of the at least one fluid-transport related parameter by means of the at least one sensor while the teatcups are simultaneously attached to the test tubes and an external vacuum pressure (P op , P p ) is applied either on a milk-line side of the controllable valve or on a side opposite to the milk-line side relative to the controllable valve . at least one sensor configured to measure at least one fluid-transport related parameter (P i , P 1 , P 2 , P 3 , P 4 , F i , F 1 , F 2 , F 3 , F 4 ) of the milking point, a set of test tubes , wherein each test tube is configured to be attached to one teatcup in the set of teatcups , and a controllable valve connected to each of the test tubes , the diagnostic apparatus being characterized in that the controllable valve being configured to, in response to a control signal (Ctrl), selectively arrange a particular one of the test tubes for measurement of the at least one fluid-transport related parameter by means of the at least one sensor while the teatcups are simultaneously attached to the test tubes and an external vacuum pressure (P op , P p ) is applied either on a milk-line side of the controllable valve or on a side opposite to the milk-line side relative to the controllable valve .
A method for aligning an inertial unit carried by a static or quasi-static carrier, characterised by : - simultaneously implementing several alignment processing operation operations dimensioned for several amplitudes of low-frequency oscillatory motions of the carrier with distinct alignment observation durations, - determining a minimum observation duration which corresponds to the alignment observation duration for which a coherence between two pieces of alignment information obtained by means of alignment processing operation operations dimensioned for a given amplitude of the low frequency oscillatory motion of the carrier is fulfilled, - determining the alignment information as a function of the alignment information determined for this minimum observation duration. - simultaneously implementing several alignment processing operation operations dimensioned for several amplitudes of low-frequency oscillatory motions of the carrier with distinct alignment observation durations, - determining a minimum observation duration which corresponds to the alignment observation duration for which a coherence between two pieces of alignment information obtained by means of alignment processing operation operations dimensioned for a given amplitude of the low frequency oscillatory motion of the carrier is fulfilled, - determining the alignment information as a function of the alignment information determined for this minimum observation duration.
Method based on foot kinematics, for the 3D gait assessment using an inertial sensor fixed to the foot or integrated on a shoe; said method taking into consideration at least the two following foot parameters obtained from said sensor : - turning, - clearance, wherein said turning parameter is quantified during gait, from spatial orientation of the foot and temporal events, including turning angle, and wherein said clearance parameter is quantified from the sensor position relative to heel and toe and the spatial trajectories of the sensor, heel and toe during gait at each cycle, including minimum and maximum of toe and heel clearance. - turning, - clearance,
A blank for forming a mold comprising: a generally elongated primary member including at least one area for receiving a support member , a first end and a second opposite end , said first and second ends being configured to couple to one another; and at least one support member configured to affix to the at least one area of the primary member to provide structural support to the primary member at a desired area, wherein the generally elongated primary member in combination with the at least one support member forms a sidewall of the mold when affixed to the at least one area , wherein the blank is maintained in a ready-to-use configuration when said at least one support member is affixed to said primary member at said at least one area ; and further wherein the primary member is formed having at least one crease , that said at least one area for receiving a support member is substantially aligned with, or in overlapping arrangement with, the at least one crease, that the support member is positioned directly adjacent the at least one crease so as to oppose a bias of said primary member and the length of the support member , measured parallel to the longitudinal axis L of the primary member , is generally larger than the crease ; characterised in that the blank is transformable into a stowed configuration by folding the blank about the at least one crease . a generally elongated primary member including at least one area for receiving a support member , a first end and a second opposite end , said first and second ends being configured to couple to one another; and at least one support member configured to affix to the at least one area of the primary member to provide structural support to the primary member at a desired area, wherein the generally elongated primary member in combination with the at least one support member forms a sidewall of the mold when affixed to the at least one area , wherein the blank is maintained in a ready-to-use configuration when said at least one support member is affixed to said primary member at said at least one area ; and further wherein the primary member is formed having at least one crease , that said at least one area for receiving a support member is substantially aligned with, or in overlapping arrangement with, the at least one crease, that the support member is positioned directly adjacent the at least one crease so as to oppose a bias of said primary member and the length of the support member , measured parallel to the longitudinal axis L of the primary member , is generally larger than the crease ; characterised in that the blank is transformable into a stowed configuration by folding the blank about the at least one crease .
A method for implementing a white-box Optical Transport Network, OTN, hardware device, comprising: performing (S10) an abstraction processing on a hardware device used by an OTN and making at least one constraint rule to form a low-level Application Programming Interface, API; and acquiring, by a compiler, (S11) a customization description file of the low-level API inputted by a user, and automatically generating a connection code between a public code and a user code according to the customization description file of the low-level API inputted by the user, such that a low-level service logic is processed publically; wherein the step of performing (S 10) an abstraction processing on a hardware device used by an OTN and making at least one constraint rule comprises: abstracting (S102) the hardware device used by the OTN into a service processing chip, a photoelectric conversion chip and a cross-dispatching chip; and making (S104) constraint rules for the service processing chip, the photoelectric conversion chip and the cross-dispatching chip; wherein the customization description file is formed by: abstracting differences between the service processing chip, the photoelectric conversion chip and the cross-dispatching chip by using domain specific language, DSL, technology to form the customization description file. performing (S10) an abstraction processing on a hardware device used by an OTN and making at least one constraint rule to form a low-level Application Programming Interface, API; and acquiring, by a compiler, (S11) a customization description file of the low-level API inputted by a user, and automatically generating a connection code between a public code and a user code according to the customization description file of the low-level API inputted by the user, such that a low-level service logic is processed publically; wherein the step of performing (S 10) an abstraction processing on a hardware device used by an OTN and making at least one constraint rule comprises: abstracting (S102) the hardware device used by the OTN into a service processing chip, a photoelectric conversion chip and a cross-dispatching chip; and making (S104) constraint rules for the service processing chip, the photoelectric conversion chip and the cross-dispatching chip; wherein the customization description file is formed by: abstracting differences between the service processing chip, the photoelectric conversion chip and the cross-dispatching chip by using domain specific language, DSL, technology to form the customization description file. abstracting (S102) the hardware device used by the OTN into a service processing chip, a photoelectric conversion chip and a cross-dispatching chip; and making (S104) constraint rules for the service processing chip, the photoelectric conversion chip and the cross-dispatching chip; wherein the customization description file is formed by: abstracting differences between the service processing chip, the photoelectric conversion chip and the cross-dispatching chip by using domain specific language, DSL, technology to form the customization description file.
A chair support shell comprising an integral back portion , seat portion , and joining portion between the back portion and the seat portion , wherein at least a major portion of the support shell comprises a compliant structure , the compliant structure having a plurality of cells interconnected by a plurality of resilient members ; wherein the compliant structure provides compliance in the seat portion , compliance in the back portion , and compliance in the joining portion , and wherein the compliant structure enables recline of the back portion relative to the seat portion ; characterized in that the cells and resilient members together define an auxetic structure.
A method implemented by a digitizer sensor associated with a sensing surface, the method comprising: detecting a stylus signal emitted by a stylus with the digitizer sensor ; determining coordinates of the stylus based on detecting the stylus signal; determining that the stylus is identifying a hover operational mode based on the stylus signal; searching for a capacitive effect of a tip of the stylus on the digitizer sensor based on mutual capacitive detection, wherein the search is performed in a defined area around the coordinates determined; reporting a touch operational mode of the stylus based on the determining that the stylus signal is indicating the hover operational mode and based on identifying the capacitive effect, or reporting the hover operational mode of the stylus based on the determining that the stylus signal is indicating the hover operational mode and based on identifying the capacitive effect of the tip is not detectable in the defined area ; and inking based on the reporting of the touch operational mode of the stylus , wherein no inking is done when the hover operational mode is reported. detecting a stylus signal emitted by a stylus with the digitizer sensor ; determining coordinates of the stylus based on detecting the stylus signal; determining that the stylus is identifying a hover operational mode based on the stylus signal; searching for a capacitive effect of a tip of the stylus on the digitizer sensor based on mutual capacitive detection, wherein the search is performed in a defined area around the coordinates determined; reporting a touch operational mode of the stylus based on the determining that the stylus signal is indicating the hover operational mode and based on identifying the capacitive effect, or reporting the hover operational mode of the stylus based on the determining that the stylus signal is indicating the hover operational mode and based on identifying the capacitive effect of the tip is not detectable in the defined area ; and inking based on the reporting of the touch operational mode of the stylus , wherein no inking is done when the hover operational mode is reported.
A motor-driven compressor , comprising: an electric motor having a ring shaped stator core ; a compression mechanism driven by the electric motor ; a motor housing accommodating the electric motor , wherein the stator core of the electric motor and the motor housing are assembled by shrink fit; and a cluster block engaged with the stator core in the motor housing , the cluster block accommodating a connecting terminal for electrical connection between a conductor connected to a motor drive circuit and a lead wire drawn from the electric motor , the cluster block having a terminal hole for receiving the connecting terminal , a groove formed in the outer peripheral surface of the stator core and extending straight along the central axis (L1) of the stator core, characterized in that the cluster block has an opening that is provided separately from the terminal hole , wherein the opening of the cluster block faces in the direction that is parallel to the central axis (L1) of the stator core . an electric motor having a ring shaped stator core ; a compression mechanism driven by the electric motor ; a motor housing accommodating the electric motor , wherein the stator core of the electric motor and the motor housing are assembled by shrink fit; and a cluster block engaged with the stator core in the motor housing , the cluster block accommodating a connecting terminal for electrical connection between a conductor connected to a motor drive circuit and a lead wire drawn from the electric motor , the cluster block having a terminal hole for receiving the connecting terminal , a groove formed in the outer peripheral surface of the stator core and extending straight along the central axis (L1) of the stator core, characterized in that the cluster block has an opening that is provided separately from the terminal hole , wherein the opening of the cluster block faces in the direction that is parallel to the central axis (L1) of the stator core .
A combination for use in medicine comprising: (a) an ellagitannin composition; and (b) an enzymatic composition comprising an ellagitannin-enzyme-synthesizing (EES) microbe or an extract thereof and one or more ellagitannin enzymes, wherein the EES microbe is Lactobacillus plantarum; wherein the one or more ellagitannin enzymes are selected from the group consisting of a tannin acyl hydrolase enzyme, a gallate decarboxylase enzyme, and a combination thereof. (a) an ellagitannin composition; and (b) an enzymatic composition comprising an ellagitannin-enzyme-synthesizing (EES) microbe or an extract thereof and one or more ellagitannin enzymes, wherein the EES microbe is Lactobacillus plantarum; wherein the one or more ellagitannin enzymes are selected from the group consisting of a tannin acyl hydrolase enzyme, a gallate decarboxylase enzyme, and a combination thereof.
An absorbent article, such as a disposable diaper, comprising a laminated assembly comprising a support layer and an anti-slip strip , the anti-slip strip comprising an elastomeric material, the support layer and the anti-slip strip being laminated together, the anti-slip strip comprising a base and a plurality of protruding elements extending from the base and the plurality of protruding elements protruding from a face of the laminated assembly .
An EM filter component for an aircraft insert, comprising: a non-conductive body having an outer surface and an inner surface, wherein the inner surface is configured to be hidden from view when installed on the insert; and a surface filter disposed on the inner surface such that when the non-conductive body is installed on the insert the surface filter is not visible, wherein the surface filter is configured to filter out one or more predetermined filter frequencies, wherein the non-conductive body is a faceplate for an aircraft appliance, and wherein the non-conductive body defines a grill and a window for viewing an electronic display, and wherein the surface filter covers a portion of the grill to define an uncovered portion to pass one or more communication frequencies. a non-conductive body having an outer surface and an inner surface, wherein the inner surface is configured to be hidden from view when installed on the insert; and a surface filter disposed on the inner surface such that when the non-conductive body is installed on the insert the surface filter is not visible, wherein the surface filter is configured to filter out one or more predetermined filter frequencies, wherein the non-conductive body is a faceplate for an aircraft appliance, and wherein the non-conductive body defines a grill and a window for viewing an electronic display, and wherein the surface filter covers a portion of the grill to define an uncovered portion to pass one or more communication frequencies.
A wireless communication device configured to operate as an access point identified by network identification information that complies with a first and a second SSID format, each SSID format comprising an identification portion and a free description portion, wherein the network identification information includes first identification information for use with a first wireless connection in accordance with a first communication setting protocol and second identification information for use with a second wireless connection in accordance with a second communication setting protocol, wherein the first communication setting protocol is different from the second communication setting protocol, and when the network identification information is read in accordance with the first SSID format, the first identification information is described in the identification portion while the second identification information is described in the free description portion, and when the network identification information is read in accordance with the second SSID format, the first identification information is described in the free description portion while the second identification information is described in the identification portion.