mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for determining a position of a movable object in a high pressure chamber, the apparatus comprising - a detecting unit (1.1) that has at least one sensor (1.1.1) for detecting the position of the object and outputting a position signal, and a sensor cable (1.1.2) for relaying the position signal to an evaluating unit, and - a carrier unit (1.2) for receiving the detecting unit (1.1), - wherein the sensor (1.1.1) is arranged on an end (1.2.1) of the carrier unit (1.2) that can face the object and that can be arranged stationary in the high pressure chamber, - the carrier unit (1.2) has a flexible region (1.2.2) that is arranged between the stationary end (1.2.1) and a region that can be guided through a housing that delimits the high pressure chamber, - the sensor cable (1.1.2) of the detecting unit (1.1) is guided through the flexible region (1.2.2) and is provided to be guided out of the high pressure chamber through the region that extends through the housing, characterised in that the flexible region (1.2.2) is formed by a section (1.2.5), which is embodied as a tube spiral, of a guiding tube (1.2.4) and the sensor cable (1.1.2) is guided through said guiding tube. - a detecting unit (1.1) that has at least one sensor (1.1.1) for detecting the position of the object and outputting a position signal, and a sensor cable (1.1.2) for relaying the position signal to an evaluating unit, and - a carrier unit (1.2) for receiving the detecting unit (1.1), - wherein the sensor (1.1.1) is arranged on an end (1.2.1) of the carrier unit (1.2) that can face the object and that can be arranged stationary in the high pressure chamber, - the carrier unit (1.2) has a flexible region (1.2.2) that is arranged between the stationary end (1.2.1) and a region that can be guided through a housing that delimits the high pressure chamber, - the sensor cable (1.1.2) of the detecting unit (1.1) is guided through the flexible region (1.2.2) and is provided to be guided out of the high pressure chamber through the region that extends through the housing, characterised in that the flexible region (1.2.2) is formed by a section (1.2.5), which is embodied as a tube spiral, of a guiding tube (1.2.4) and the sensor cable (1.1.2) is guided through said guiding tube.
A battery module, comprising: a cell assembly including at least one battery cell; a module case configured to accommodate the cell assembly in an inner space thereof and having a venting hole formed to discharge a gas in the inner space to the outside; a filtering member provided in the venting hole of the module case and configured to filter foreign matter from flowing into the inner space from the outer space through the venting hole; and a plurality of mesh members respectively configured in a mesh form and provided on both sides of the filtering member. a cell assembly including at least one battery cell; a module case configured to accommodate the cell assembly in an inner space thereof and having a venting hole formed to discharge a gas in the inner space to the outside; a filtering member provided in the venting hole of the module case and configured to filter foreign matter from flowing into the inner space from the outer space through the venting hole; and a plurality of mesh members respectively configured in a mesh form and provided on both sides of the filtering member.
An apparatus comprising: a first optocoupler that selectively allows a first current to flow from a first one of N power supply lines (U, V, W) to a second one of the N power supply lines, wherein the N power supply lines each provide a phase signal, and wherein N is an integer greater than two; a device that allows current to flow from the second one of the N power supply lines to the first one of the N power supply lines and that prevents current from flowing from the first one of the N power supply lines to the second one of the N power supply lines; and a control module that controls the first optocoupler and that analyzes a first signal, which is based on the first current, to determine a phase failure of the phase signals; characterised in that the apparatus further comprises an output optocoupler that receives the first current and generates an output current based on the first current, wherein the first signal is based on the output current, and wherein the first current is zero when the first optocoupler is deactivated. a first optocoupler that selectively allows a first current to flow from a first one of N power supply lines (U, V, W) to a second one of the N power supply lines, wherein the N power supply lines each provide a phase signal, and wherein N is an integer greater than two; a device that allows current to flow from the second one of the N power supply lines to the first one of the N power supply lines and that prevents current from flowing from the first one of the N power supply lines to the second one of the N power supply lines; and a control module that controls the first optocoupler and that analyzes a first signal, which is based on the first current, to determine a phase failure of the phase signals; characterised in that the apparatus further comprises an output optocoupler that receives the first current and generates an output current based on the first current, wherein the first signal is based on the output current, and wherein the first current is zero when the first optocoupler is deactivated.
Contact stud for providing a connection, in particular a ground connection to a car body, comprising a protection element, a connection section adapted to be inserted into a terminal along an insertion direction and a base section adapted to be mounted on a car body wherein an electrically conductive first section of the connection section is protected from being coated by a coating by the protection element characterized in that the connection section outside the electrically conductive first section is coated with an insulator, wherein the protection element is shiftable along the insertion direction.
Method for performing relay node configuration and re-configuration in relay enhanced networks, wherein said network includes a plurality of eNBs that function as donor eNBs providing wireless access to associated relay nodes, wherein said relay nodes function as eNBs from a UE perspective, the method comprising the steps of: dividing said network into clusters such that each cluster includes exactly one donor eNB and that each relay node is associated to at least one donor eNB any point in time, monitoring and/or estimating the load of donor eNBs and the handover rates among relay nodes as well as between donor eNBs and relay nodes, performing the association of relay nodes to donor eNBs on the basis of the results of said monitoring and/or estimation. dividing said network into clusters such that each cluster includes exactly one donor eNB and that each relay node is associated to at least one donor eNB any point in time, monitoring and/or estimating the load of donor eNBs and the handover rates among relay nodes as well as between donor eNBs and relay nodes, performing the association of relay nodes to donor eNBs on the basis of the results of said monitoring and/or estimation.
A computer-implemented method for determining the physicochemical properties of a nanoscale system sample using analytical ultracentrifugation comprising the steps of (a) generating a multi-dimensional sedimentation analysis map associated with an NSS of interest comprising the steps of selecting parameters representative of the NSS of interest from the group consisting of density, absorption, emission, refraction, and degradation kinetics; and generating the multi-dimensional sedimentation analysis map utilizing AUC sedimentation coefficient values measured per parameter for different concentration series of the NSS of interest and any individual NSS component; (b) selecting parameters from the group consisting of density, absorption, emission, refraction, and degradation kinetics for a sample of a new NSS; (c) determining sedimentation coefficient values per parameter of a sample of the new NSS; characterized by (d) mapping the sedimentation coefficient values per parameter of the sample of the new NSS onto the multi-dimensional sedimentation analysis map by a mathematical fitting function to obtain a map value for the sample of the new NSS; and (e) inferring from the map value of the sample of the new NSS the physicochemical properties of the new NSS from the physicochemical properties derivable from the sedimentation coefficient values of the NSS used to generate the multi-dimensional sedimentation analysis map, wherein the physicochemical properties are selected from the group consisting of NSS size, NSS molecular weight/molar mass, NSS concentration, NSS dispersity, NSS aggregation, NSS integrity, and NSS stability. (a) generating a multi-dimensional sedimentation analysis map associated with an NSS of interest comprising the steps of selecting parameters representative of the NSS of interest from the group consisting of density, absorption, emission, refraction, and degradation kinetics; and generating the multi-dimensional sedimentation analysis map utilizing AUC sedimentation coefficient values measured per parameter for different concentration series of the NSS of interest and any individual NSS component; (b) selecting parameters from the group consisting of density, absorption, emission, refraction, and degradation kinetics for a sample of a new NSS; (c) determining sedimentation coefficient values per parameter of a sample of the new NSS; characterized by (d) mapping the sedimentation coefficient values per parameter of the sample of the new NSS onto the multi-dimensional sedimentation analysis map by a mathematical fitting function to obtain a map value for the sample of the new NSS; and (e) inferring from the map value of the sample of the new NSS the physicochemical properties of the new NSS from the physicochemical properties derivable from the sedimentation coefficient values of the NSS used to generate the multi-dimensional sedimentation analysis map, wherein the physicochemical properties are selected from the group consisting of NSS size, NSS molecular weight/molar mass, NSS concentration, NSS dispersity, NSS aggregation, NSS integrity, and NSS stability.
A computer-implemented method of evaluating the condition of a patient after a surgical procedure to identify one or both of when the patient is recovering and when the patient is relapsing, the method comprising: inputting acute phase response biomarker data defining a level of an acute phase response biomarker in said patient at a succession of biomarker measurement times following said medical procedure, said APR biomarker data defining a biomarker time course representing an evolution over time of said acute phase response; and determining a response of said patient to said surgical procedure from said APR time series data; wherein said APR biomarker comprises CRP (C-Reactive Protein); characterised in that said determining of said response comprises processing said APR biomarker data to determine a derivative with respect to time of said time course from said APR biomarker data to provide APR time series data by evaluating: APR t = dCRP t dt + k C where APR(t) defines said APR time series data, CRP(t) is defined by said APR biomarker data, and k C defines a clearance rate of CRP; and identifying one or both of a maximum in APR(t) to determine recovery of said patient and a minimum in APR(t) to determine relapse of said patient. inputting acute phase response biomarker data defining a level of an acute phase response biomarker in said patient at a succession of biomarker measurement times following said medical procedure, said APR biomarker data defining a biomarker time course representing an evolution over time of said acute phase response; and determining a response of said patient to said surgical procedure from said APR time series data; wherein said APR biomarker comprises CRP (C-Reactive Protein); characterised in that said determining of said response comprises processing said APR biomarker data to determine a derivative with respect to time of said time course from said APR biomarker data to provide APR time series data by evaluating: APR t = dCRP t dt + k C where APR(t) defines said APR time series data, CRP(t) is defined by said APR biomarker data, and k C defines a clearance rate of CRP; and identifying one or both of a maximum in APR(t) to determine recovery of said patient and a minimum in APR(t) to determine relapse of said patient.
A surface treatment agent to be used for surface treatment of an aluminum alloy material for forming cans, the surface treatment agent comprising zirconium, aluminum, nitrate radical, and fluorine, wherein a pH ranges from 2.0 to 4.0, a molar mass concentration of the zirconium ranges from 3.2 mmol/kg to 33.0 mmol/kg, a molar mass concentration of the aluminum ranges from 14.8 mmol/kg to 74.1 mmol/kg, a molar mass concentration of the nitrate radical ranges from 16.1 mmol/kg to 161.4 mmol/kg, a molar mass concentration of the fluorine ranges from 52.6 mmol/kg to 526.3 mmol/kg, and (F-6Zr)/Al ≥ 2.5 is satisfied, and a molar mass concentration of the phosphorus compound is 0.1 mmol/kg or less, and wherein, F represents the molar mass concentration of the fluorine, Zr represents the molar mass concentration of the zirconium, and Al represents the molar mass concentration of the aluminum, and wherein the surface treatment agent further comprises one or more elements selected from Bi element, Co element, and Ni element. a pH ranges from 2.0 to 4.0, a molar mass concentration of the zirconium ranges from 3.2 mmol/kg to 33.0 mmol/kg, a molar mass concentration of the aluminum ranges from 14.8 mmol/kg to 74.1 mmol/kg, a molar mass concentration of the nitrate radical ranges from 16.1 mmol/kg to 161.4 mmol/kg, a molar mass concentration of the fluorine ranges from 52.6 mmol/kg to 526.3 mmol/kg, and (F-6Zr)/Al ≥ 2.5 is satisfied, and a molar mass concentration of the phosphorus compound is 0.1 mmol/kg or less, and wherein, F represents the molar mass concentration of the fluorine, Zr represents the molar mass concentration of the zirconium, and Al represents the molar mass concentration of the aluminum, and wherein the surface treatment agent further comprises one or more elements selected from Bi element, Co element, and Ni element.
An intraocular lens insertion apparatus which inserts a deformable intraocular lens into an eyeball from an incision opening formed in an eyeball tissue, the intraocular lens insertion apparatus comprising: an apparatus body which is formed in a substantially tubular shape and includes an insertion tube formed in a leading end thereof so as to be inserted into the incision opening; an accommodation portion which is formed integrally with or separately from the apparatus body and accommodates the intraocular lens therein so as to dispose the intraocular lens inside the apparatus body; and a plunger which presses the intraocular lens accommodated in the accommodation portion by a leading end thereof so as to discharge the intraocular lens from the insertion tube into the eyeball, wherein the plunger includes a leading end region which contacts the intraocular lens body and/or a beard-like lens holding portion extending from the intraocular lens body, a rod-like portion which extends from a trailing end of the leading end region in a direction opposite to the pressing direction and a thin plate-like flat portion which is provided in the rod-like portion so as to be widened, and characterised in that the rod-like portion is formed so that, at a part of a region (31a, 31d, 31e) without the flat portion a thickness with respect to the optical axis direction of the accommodated intraocular lens is constant and a thickness of a portion distant from a leading end of the leading end region by a predetermined distance or more increases gradually with respect to a direction perpendicular to the optical axis direction and perpendicular to the pressing direction. an apparatus body which is formed in a substantially tubular shape and includes an insertion tube formed in a leading end thereof so as to be inserted into the incision opening; an accommodation portion which is formed integrally with or separately from the apparatus body and accommodates the intraocular lens therein so as to dispose the intraocular lens inside the apparatus body; and a plunger which presses the intraocular lens accommodated in the accommodation portion by a leading end thereof so as to discharge the intraocular lens from the insertion tube into the eyeball, wherein the plunger includes a leading end region which contacts the intraocular lens body and/or a beard-like lens holding portion extending from the intraocular lens body, a rod-like portion which extends from a trailing end of the leading end region in a direction opposite to the pressing direction and a thin plate-like flat portion which is provided in the rod-like portion so as to be widened, and characterised in that the rod-like portion is formed so that, at a part of a region (31a, 31d, 31e) without the flat portion a thickness with respect to the optical axis direction of the accommodated intraocular lens is constant and a thickness of a portion distant from a leading end of the leading end region by a predetermined distance or more increases gradually with respect to a direction perpendicular to the optical axis direction and perpendicular to the pressing direction.
Multi-layered tube comprising a core layer, a covering layer and an intermediate layer, which is arranged between the core layer and the covering layer, wherein the covering layer forms an encircling, strip-like first protective region which extends from one tube end up to a first axial end, the latter being at a distance from the tube end, comprises a first predetermined breaking segment extending from the tube end, and is intended to protect the core layer and the intermediate layer and to be peeled off prior to a connection of the tube to a further tube of a similar type, characterized in that the first protective region is delimited at the first axial end by an encircling first predetermined breaking point, the first predetermined breaking segment extends from the tube end up to at least almost the first axial end, the covering layer forms an encircling, strip-like second protective region which extends from the first axial end up to a second axial end, which is delimited at the second axial end by an encircling second predetermined breaking point, and which is intended to protect the intermediate layer and to be peeled off for a connection of the tube to the further tube, wherein the rim of the second protective region that is uncovered by way of the peeling of the first protective region forms a detachment edge for the peeling of the intermediate layer.
A pharmaceutical, dental and/or cosmetic composition, consisting of a suitable pharmaceutical carrier and high MW depleted EMD, comprising all protein components ≤ 55 kDa of purified Enamel Matrix Derivative proteins, which have a molecular weight between 1 and 55kDa, and are produced by a process characterized by a. isolating Enamel Matrix Derivative proteins from mammalian developing teeth, and b. submitting said proteins to an extraction step, in which proteins having a molecular weight between 55 and 160kDa and an iso-electric point between 3-10 are selectively removed. a. isolating Enamel Matrix Derivative proteins from mammalian developing teeth, and b. submitting said proteins to an extraction step, in which proteins having a molecular weight between 55 and 160kDa and an iso-electric point between 3-10 are selectively removed.
A container, especially for medicines, consisting of a bottle whose neck has an external thread, wherein the neck is covered by a screw cap whose body has an internal thread that cooperates with the thread of the neck, wherein the body of the screw cap is breakably connected to a band located from the side of the body of the bottle, wherein the breakable connection is ensured by thin connectors that connect the band to the body of the screw cap, characterized in that, the band is made up of two rings (7, 8) connected by posts, and that the neck of the bottle has a stopper ring protruding outwards located between the rings (7, 8) of the band, wherein the inside diameter of the rings (7, 8) of the band is equal to the outside diameter of the stopper ring, and the lower ring of the band has lips protruding inwards located in the windows between the posts.
A method of estimating available path capacity of a data transfer path that transfers data between a sending node and a receiving node of a data communication system, the method comprising: sending from the sending node one or more setting packets, wherein the one or more setting packets is/are used to set a traffic shaping node arranged in the data transfer path in a steady state where each packet is rate limited according to an average rate of the traffic shaping node; transmitting, from the traffic shaping node, probe packets received from the sending node, towards the receiving node where each packet is rate limited according to the average rate for the traffic shaping node; providing, in a receiving node or in a node communicating with the receiving node, in response to traversal of the data transfer path by the probe packets, and during the real-time operation of the data transfer path, measured data for use in estimating the available path capacity of the data transfer path; and estimating, in a receiving node or in a node communicating with the receiving node, the available path capacity of the data transfer path using the measured data from the probe packets. sending from the sending node one or more setting packets, wherein the one or more setting packets is/are used to set a traffic shaping node arranged in the data transfer path in a steady state where each packet is rate limited according to an average rate of the traffic shaping node; transmitting, from the traffic shaping node, probe packets received from the sending node, towards the receiving node where each packet is rate limited according to the average rate for the traffic shaping node; providing, in a receiving node or in a node communicating with the receiving node, in response to traversal of the data transfer path by the probe packets, and during the real-time operation of the data transfer path, measured data for use in estimating the available path capacity of the data transfer path; and estimating, in a receiving node or in a node communicating with the receiving node, the available path capacity of the data transfer path using the measured data from the probe packets.