mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical connector for use in an electrical connector system which controls cross-talk and signal radiation, the electrical connector comprising: a housing having a plurality of modules , the modules having mating ends and mounting ends ; signal contacts positioned in the modules , the signal contacts extending between the mating ends and the mounting ends , the signal contacts being arranged in pairs to carry differential signals; ground contacts positioned in the modules , the ground contacts extending between the mating ends and the mounting ends , respective ground contacts of the ground contacts being positioned adjacent to respective signal contacts of the signal contacts ; ground plates positioned in the modules , the ground plates extending between the mating ends and the mounting ends , the ground contacts being electrically connected to the ground plates , wherein the signal contacts have mating contact receiving sections , securing sections and circuit board mounting sections , characterised in that the circuit board mounting sections are off-set from the mating contact receiving sections , the circuit board mounting sections of the signal contacts in a respective module of the modules are off-set from the circuit board mounting sections of the signal contacts in a respective adjacent module of the modules wherein the cross-talk is reduced in the footprint of the signal contacts , as the off-set pattern of the circuit board mounting sections of the signal contacts is configured for cancellation. a housing having a plurality of modules , the modules having mating ends and mounting ends ; signal contacts positioned in the modules , the signal contacts extending between the mating ends and the mounting ends , the signal contacts being arranged in pairs to carry differential signals; ground contacts positioned in the modules , the ground contacts extending between the mating ends and the mounting ends , respective ground contacts of the ground contacts being positioned adjacent to respective signal contacts of the signal contacts ; ground plates positioned in the modules , the ground plates extending between the mating ends and the mounting ends , the ground contacts being electrically connected to the ground plates , wherein the signal contacts have mating contact receiving sections , securing sections and circuit board mounting sections , characterised in that the circuit board mounting sections are off-set from the mating contact receiving sections , the circuit board mounting sections of the signal contacts in a respective module of the modules are off-set from the circuit board mounting sections of the signal contacts in a respective adjacent module of the modules wherein the cross-talk is reduced in the footprint of the signal contacts , as the off-set pattern of the circuit board mounting sections of the signal contacts is configured for cancellation.
An electric machine module capable of being cooled by a coolant, the electric machine module comprising: an electric machine including a stator with stator end turns and a rotor ; a housing enclosing the electric machine , an inner wall of the housing defining a machine cavity ; a cover coupled to the housing and extending radially inward into the machine cavity ; and an agitator member operatively coupled to the rotor and extending substantially outward along at least a portion of an axial length of the stator end turns , wherein the agitator member comprises a radially distal surface disposed radially inward of the stator end turns ; the cover , the agitator member , and the stator end turns defining a stator cavity , the stator cavity being in fluid communication with the machine cavity ; the electric machine module further comprising a coolant jacket substantially surrounding the electric machine and coolant apertures in fluid communication with the coolant jacket and the stator cavity , the coolant apertures being disposed radially outward of the stator end turns ; characterised in that the agitator member receives coolant from the stator end turns onto the radially distal surface of the agitator member such that as the coolant reaches the radially distal surface , the coolant is substantially radially slung back outward towards the stator end turns and/or the cover due to rotation of the agitator member in synchronicity with the rotor . an electric machine including a stator with stator end turns and a rotor ; a housing enclosing the electric machine , an inner wall of the housing defining a machine cavity ; a cover coupled to the housing and extending radially inward into the machine cavity ; and an agitator member operatively coupled to the rotor and extending substantially outward along at least a portion of an axial length of the stator end turns , wherein the agitator member comprises a radially distal surface disposed radially inward of the stator end turns ; the cover , the agitator member , and the stator end turns defining a stator cavity , the stator cavity being in fluid communication with the machine cavity ; the electric machine module further comprising a coolant jacket substantially surrounding the electric machine and coolant apertures in fluid communication with the coolant jacket and the stator cavity , the coolant apertures being disposed radially outward of the stator end turns ; characterised in that the agitator member receives coolant from the stator end turns onto the radially distal surface of the agitator member such that as the coolant reaches the radially distal surface , the coolant is substantially radially slung back outward towards the stator end turns and/or the cover due to rotation of the agitator member in synchronicity with the rotor .
A mass spectrometer comprising: a fragmentation device comprising a collision or fragmentation cell comprising a multipole rod set wherein said fragmentation device is arranged and adapted in a fragmentation mode of operation to fragment ions by Collisional Induced Dissociation ("CID"); acceleration means arranged and adapted to accelerate ions into said fragmentation device , wherein in said fragmentation mode of operation said acceleration means is arranged and adapted to progressively alter and/or vary and/or scan the kinetic energy which ions obtain as they pass to said fragmentation device so that first ions accelerated into the fragmentation device at a time t 1 are fragmented with a first kinetic energy E 1 and second different ions accelerated into the fragmentation device at a second later time t 2 are fragmented with a second different kinetic energy E 2 . a fragmentation device comprising a collision or fragmentation cell comprising a multipole rod set wherein said fragmentation device is arranged and adapted in a fragmentation mode of operation to fragment ions by Collisional Induced Dissociation ("CID"); acceleration means arranged and adapted to accelerate ions into said fragmentation device , wherein in said fragmentation mode of operation said acceleration means is arranged and adapted to progressively alter and/or vary and/or scan the kinetic energy which ions obtain as they pass to said fragmentation device so that first ions accelerated into the fragmentation device at a time t 1 are fragmented with a first kinetic energy E 1 and second different ions accelerated into the fragmentation device at a second later time t 2 are fragmented with a second different kinetic energy E 2 .
A reinforcing steel member for a motor vehicle, comprising: a steel sheet; a first resin material disposed on at least a part of a surface of the steel sheet; and a second resin material disposed on at least a part of a surface of the first resin material and having a matrix resin and a reinforcing fiber material contained in the matrix resin, wherein in a cross section of the first resin material and the second resin material perpendicular to the surface of the steel sheet, between one end portion of the second resin material and the other end portion of the second resin material, there is a portion having a length of 80 mm or more along a boundary between the second resin material and the first resin material, in the first resin material, a protrusion portion having a length X of 3.0 mm or more from the two end portions of the second resin material to an end portion of the first resin material is formed in the cross section, and a Young's modulus of the first resin material at room temperature is 1/10 or less of a Young's modulus of the second resin material at room temperature. a steel sheet; a first resin material disposed on at least a part of a surface of the steel sheet; and a second resin material disposed on at least a part of a surface of the first resin material and having a matrix resin and a reinforcing fiber material contained in the matrix resin, wherein in a cross section of the first resin material and the second resin material perpendicular to the surface of the steel sheet, between one end portion of the second resin material and the other end portion of the second resin material, there is a portion having a length of 80 mm or more along a boundary between the second resin material and the first resin material, in the first resin material, a protrusion portion having a length X of 3.0 mm or more from the two end portions of the second resin material to an end portion of the first resin material is formed in the cross section, and a Young's modulus of the first resin material at room temperature is 1/10 or less of a Young's modulus of the second resin material at room temperature.
A method for adjusting at least one parameter range of a device parameter of a floor treatment device for treating a surface , wherein said parameter range is available on the floor treatment device and depends on a floor type of the surface to be treated, wherein the parameter range comprises a defined scope of values of the device parameter , which can be selected by the user for the treatment of the surface , characterized in that the user moves the floor treatment device over the surface to be treated during the adjustment process, wherein a limiting device parameter , which is dependent on the nature of the surface and upon its use for the treatment of the surface leads to a predefined fault, is automatically determined during the movement of the floor treatment device , and wherein the parameter range is automatically adjusted based on the determined limiting device parameter in that the limiting device parameter defines a range end of the parameter range .
Slipring module assembly comprising two slipring modules and one double holder , the slipring modules having a cylindrical shape around a center axis , and comprising: - a slipring module body , the body comprising at least an electrically insulating material, - at least one sliding track , at least one sliding track comprising an electrically conductive material, characterized in that characterized in that the slipring modules have a radial groove at one end or both ends, the double holder is adapted to fit to the at least one end of each of the slipring modules , and the double holder comprises a plurality of fingers on two axially opposing sides and around the common center axis reaching into the radial grooves when attached to the slipring modules the fingers locking the double holder to the slipring modules . - a slipring module body , the body comprising at least an electrically insulating material, - at least one sliding track , at least one sliding track comprising an electrically conductive material, characterized in that
Device for metal processing, preferably in a rolling mill, wherein the device comprises: a machine with a stationary machine part and at least one machine part movable relative to the stationary machine part, wherein the machine comprises at least one roll stand for rolling a metal strip in a rolling gap, wherein the roll stand comprises one or more rolls ; and a control for process-control of the machine ; characterised by a monitoring system which is in communication with the control and which comprises at least one camera and an evaluating device in communication with the camera , wherein the evaluating device is arranged to receive image data of the camera , to perform an image recognition thereon so as to detect the position of the movable machine part and to output to the control . a machine with a stationary machine part and at least one machine part movable relative to the stationary machine part, wherein the machine comprises at least one roll stand for rolling a metal strip in a rolling gap, wherein the roll stand comprises one or more rolls ; and a control for process-control of the machine ; characterised by a monitoring system which is in communication with the control and which comprises at least one camera and an evaluating device in communication with the camera , wherein the evaluating device is arranged to receive image data of the camera , to perform an image recognition thereon so as to detect the position of the movable machine part and to output to the control .
A multimodality treatment system comprising: a biocompatible expandable balloon inflatable within a cavity of a patient; a magnetic nanoparticle solution injectable into the biocompatible expandable balloon; one or more catheters being capable of extending from outside of the patient to an interior of the biocompatible balloon, at least one of the one or more catheters coupled to a remote afterloader; a radiation source removably insertable within the biocompatible expandable balloon through the at least one catheter coupled to the afterloader; the system being characterised by further comprising: a non-contacting external induction coil adapted to apply an external magnetic field surrounding the balloon, the magnetic field coupling to the magnetic nanoparticle solution when injected into the biocompatible expandable balloon; and having a frequency in the range of about 50 kHz to about 500 kHz. a biocompatible expandable balloon inflatable within a cavity of a patient; a magnetic nanoparticle solution injectable into the biocompatible expandable balloon; one or more catheters being capable of extending from outside of the patient to an interior of the biocompatible balloon, at least one of the one or more catheters coupled to a remote afterloader; a radiation source removably insertable within the biocompatible expandable balloon through the at least one catheter coupled to the afterloader; the system being characterised by further comprising: a non-contacting external induction coil adapted to apply an external magnetic field surrounding the balloon, the magnetic field coupling to the magnetic nanoparticle solution when injected into the biocompatible expandable balloon; and having a frequency in the range of about 50 kHz to about 500 kHz. a non-contacting external induction coil adapted to apply an external magnetic field surrounding the balloon, the magnetic field coupling to the magnetic nanoparticle solution when injected into the biocompatible expandable balloon; and having a frequency in the range of about 50 kHz to about 500 kHz.
Method for the production of hydrothermally hardened aerated or foamed concrete molded bodies, comprising the following method steps: a) Preparing a fresh concrete mass containing Portland cement clinker meal, quicklime and/or hydrated lime, ground quartz, preferably return slurry, water and at least one expanding agent or prefabricated foam or a foaming agent, b) If applicable, foaming the fresh concrete mass containing the foaming agent by stirring, c) Pouring the ready-to-pour fresh concrete mass into a casting mold, d) If necessary, allowing the fresh concrete mass to expand, e) Allowing the fresh concrete mass to stiffen to form an aerated or foamed concrete cake, f) Cutting the aerated or foamed concrete cake into individual aerated or foamed concrete molded bodies, g) Hardening the aerated or foamed concrete molded bodies in an autoclave, characterized in that the fresh concrete mass does not contain a sulfate carrier as a setting regulator and the fresh concrete mass preferably does not contain magnesium carbonate as an additive. a) Preparing a fresh concrete mass containing Portland cement clinker meal, quicklime and/or hydrated lime, ground quartz, preferably return slurry, water and at least one expanding agent or prefabricated foam or a foaming agent, b) If applicable, foaming the fresh concrete mass containing the foaming agent by stirring, c) Pouring the ready-to-pour fresh concrete mass into a casting mold, d) If necessary, allowing the fresh concrete mass to expand, e) Allowing the fresh concrete mass to stiffen to form an aerated or foamed concrete cake, f) Cutting the aerated or foamed concrete cake into individual aerated or foamed concrete molded bodies, g) Hardening the aerated or foamed concrete molded bodies in an autoclave,
A plaster for fixing cannulas comprising a support structure , having an adhesive surface, for a barrier layer arranged on the side of the support structure facing away from the adhesive surface, wherein the support structure is fixable to the skin surrounding the cannula puncture site using the adhesive surface and the barrier layer impedes the migration of bacteria and covers the cannula puncture site, wherein the support structure has a cavity covered by the barrier layer and configured for holding in place a ridge-shaped gripping aid on the cannula, which cavity penetrates the support structure, characterised in that the cavity is configured as a cavity slot , running in a straight line, in the support structure configured as a non-woven fabric layer, wherein the width of the cavity slot is less than 35% of the length of the slot in a direction perpendicular to its longitudinal direction; in that the support structure has a notch extending from an edge running parallel to the longitudinal direction of the cavity slot , said notch tapering from a width exceeding the length of the cavity slot as it proceeds towards the cavity slot and having at its end proximate to the cavity slot a smaller width than the cavity slot; and in that the support structure has an inspection opening , surrounded by the support structure in the manner of a frame and separated from the cavity by a frame section of the support structure , which inspection opening is covered by the barrier layer on the side of the support structure facing away from the adhesive surface.
A polypeptide comprising a modified receptor binding domain of Clostridial botulinum serotype B (B-H c ), comprising one or more substitution mutations corresponding to substitutions in serotype B, strain 1, wherein one of the substitution mutations is selected from the group consisting of E1191C and E1191Y, wherein the modified receptor binding domain possesses 95% or more amino acid sequence identity to a reference wild type receptor binding domain of SEQ ID NO:5, and wherein the polypeptide exhibits enhanced binding to human Syt II as compared to an identical molecule lacking the one or more substitution mutations.
A method for estimating height of a radar detected target object, the method comprising: selecting a first detection entry from a first plurality of radar detection entries, wherein the first plurality of radar detection entries is generated at a first time step by a radar sensor unit installed on a vehicle; determining a range-velocity window size, RVWS, for the first detection entry, wherein the RVWS is determined using the formula: RVWS = 2 H Max H s R , 1 1 + H Max + H s / R 2 − 1 1 + H Max − H s / R 2 , where R is a range of the first detection entry, Hs is a height of the radar sensor unit and Hmax is a maximum height for estimation; selecting other detection entries within the RVWS for the first detection entry from the first plurality of radar detection entries; for each selected other detection entry, determining if the selected other detection entry is within an azimuthal angular resolution of the radar sensor unit for the first detection entry; for each selected other detection entry within the azimuthal angular resolution of the radar sensor unit, calculating a first associated preliminary height of an object associated with the selected other detection entry. selecting a first detection entry from a first plurality of radar detection entries, wherein the first plurality of radar detection entries is generated at a first time step by a radar sensor unit installed on a vehicle; determining a range-velocity window size, RVWS, for the first detection entry, wherein the RVWS is determined using the formula: RVWS = 2 H Max H s R , 1 1 + H Max + H s / R 2 − 1 1 + H Max − H s / R 2 , where R is a range of the first detection entry, Hs is a height of the radar sensor unit and Hmax is a maximum height for estimation; wherein the first plurality of radar detection entries is generated at a first time step by a radar sensor unit installed on a vehicle; determining a range-velocity window size, RVWS, for the first detection entry, wherein the RVWS is determined using the formula: RVWS = 2 H Max H s R , 1 1 + H Max + H s / R 2 − 1 1 + H Max − H s / R 2 , where R is a range of the first detection entry, Hs is a height of the radar sensor unit and Hmax is a maximum height for estimation; selecting other detection entries within the RVWS for the first detection entry from the first plurality of radar detection entries; for each selected other detection entry, determining if the selected other detection entry is within an azimuthal angular resolution of the radar sensor unit for the first detection entry; for each selected other detection entry within the azimuthal angular resolution of the radar sensor unit, calculating a first associated preliminary height of an object associated with the selected other detection entry.
Self lock mechanism configured to be positioned between an actuating means and a means to be actuated, allowing rotation from one side while denying rotation from the other side, the mechanism comprising one or more sets of rollers and arranged between a housing and a valve connection part with a shape which will press one of the rollers in each set against the housing wall, locking the self lock mechanism if a torque is applied from the valve side and that a motor connection part is configured so that it will press the rollers out of locking position and release the locking before the motor connection part makes contact with the valve connection part and start transferring torque, characterized in that a spring is arranged between each of the roller in a pair, the spring has stiffness and a length so as to provide a force which is sufficient for keeping the rollers in position but not sufficient to cause considerable friction between rollers and housing , and thereby allow a motor to rotate the gear trough the self lock mechanism with relatively small torque and power losses in the self lock mechanism .
Vacuum cleaner comprising a fan driven by a motor , the fan being configured to generate a suction flow from a vacuum cleaner nozzle via a tube , to a dust separation device, the vacuum cleaner comprising a handle a sensing device , measuring a force along a direction between the handle (10; 8) and said nozzle , and a control arrangement controlling the output of the motor in response to the measured force characterized in that the control arrangement is adapted to lower the motor output if the sensed force exceeds a predetermined threshold, and wherein the motor output is lowered during a period of time.