mhurhangee/ep-ind-claims huggingface dataset:
An entertainment display system for a vehicle, the system comprising: an overhead compartment for luggage or other material; a base frame comprising a basin having a basin depth, wherein the basin is at least partially disposed within the overhead compartment of the vehicle when the base frame is disposed within the vehicle; a fixed angle frame fixedly mounted to the base frame such that an angle of the fixed angle frame with respect to the base frame is fixed and the fixed angle frame is fixed in position relative to the base frame, wherein the fixed angle frame is disposed partially within the basin with the remainder of the fixed angle frame extending downwardly away from and outside of the basin; and a flat panel display coupled to the fixed angle frame, such that an angle of the flat panel display with respect to the base frame is fixed in place relative to the base frame and the flat panel display cannot rotate with respect to the base frame, and that a portion of the flat panel display is disposed within the basin, and the remaining portion of the flat panel display extends downwardly away from and is outside of the basin. an overhead compartment for luggage or other material; a base frame comprising a basin having a basin depth, wherein the basin is at least partially disposed within the overhead compartment of the vehicle when the base frame is disposed within the vehicle; a fixed angle frame fixedly mounted to the base frame such that an angle of the fixed angle frame with respect to the base frame is fixed and the fixed angle frame is fixed in position relative to the base frame, wherein the fixed angle frame is disposed partially within the basin with the remainder of the fixed angle frame extending downwardly away from and outside of the basin; and a flat panel display coupled to the fixed angle frame, such that an angle of the flat panel display with respect to the base frame is fixed in place relative to the base frame and the flat panel display cannot rotate with respect to the base frame, and that a portion of the flat panel display is disposed within the basin, and the remaining portion of the flat panel display extends downwardly away from and is outside of the basin.
Tread for a heavy vehicle tyre, this tread having a total axial width W and a wearable thickness PMU of material, this tread being provided with at least four grooves (2, 2') of circumferential overall orientation on each side of a midplane that divides the tread axially into two parts of equal width, these grooves (2, 2') of circumferential overall orientation dividing the tread into a middle region, intermediate regions axially on each side of the middle region and edge regions axially delimiting the tread, the middle region being defined as the region of the tread situated between the two circumferential grooves that are axially most closely spaced on each side of the equatorial midplane, this middle region having an axial width Lm at least equal to 30% and at most equal to 60% of the total width W of the tread, the total volume void ratio of the tread when new is less than 17%, this void ratio being calculated as the ratio between the total void volume and a total volume of tread including all the voids and evaluated between the tread surface when new and an internal surface extending in the tread parallel to the tread surface when new, this internal surface being in contact radially on the inside with those points of the deepest circumferential grooves that are furthest towards the inside of the tread, the middle region having a volume void ratio when new that is less than half the total volume void ratio of the tread when new, this tread being characterized in that the middle region comprises a plurality of transverse or oblique sipes opening into the circumferential grooves, these sipes having a depth at least equal to 75% of the depth of the circumferential grooves (2, 2'), the number of transverse or oblique sipes in the middle region over one complete turn of the tyre being greater than the number of transverse or oblique sipes that may potentially be present on each other intermediate or edge region.
A spindle assembly configured to be assembled on a tool holder proximal to a tool clamping system using a front clamping nut, the tool holder comprising an internal taper socket, the spindle assembly having a rear end and a front end, and being configured to be assembled at the internal taper socket with the front end being proximal to the tool clamping system, and the rear end opposite to the tool clamping system, the assembly comprising: a rotating shaft configured for rotation within the tool holder; a bearing assembly, comprising a front end bearing assembly and rear end bearing assembly, configured to support the rotating shaft within the tool holder and to enable high-speed rotation of the shaft within the tool holder; a turbine operatively connected with the rotating shaft, the turbine configured to rotate the rotating shaft; a hollow housing to mechanically support the components of the spindle assembly; wherein at least one bearing of the bearing assembly is disposed in a part of the spindle assembly which is configured to be situated in a space defined by the taper socket of the tool holder and the front clamping nut, characterised in that a plurality of slots (212, 214, 216) are formed in the outer surface of the housing and configured to form with the inner surface of the taper socket of the tool holder passages to allow high pressure coolant fluid to flow from the tool holder to drive the turbine. a rotating shaft configured for rotation within the tool holder; a bearing assembly, comprising a front end bearing assembly and rear end bearing assembly, configured to support the rotating shaft within the tool holder and to enable high-speed rotation of the shaft within the tool holder; a turbine operatively connected with the rotating shaft, the turbine configured to rotate the rotating shaft; a hollow housing to mechanically support the components of the spindle assembly; wherein at least one bearing of the bearing assembly is disposed in a part of the spindle assembly which is configured to be situated in a space defined by the taper socket of the tool holder and the front clamping nut, characterised in that a plurality of slots (212, 214, 216) are formed in the outer surface of the housing and configured to form with the inner surface of the taper socket of the tool holder passages to allow high pressure coolant fluid to flow from the tool holder to drive the turbine.
Process for strengthening the passive layer on the surface of a chromium-containing steel by increasing the chromium/iron ratio in the passive layer and/or by increasing the layer thickness of the passive layer, characterized in that it comprises at least step (ii) and optionally step (i) is carried out before or simultaneously with step (ii): (i) cleaning the surface; (ii) contacting the surface of the steel with an acid-containing aqueous solution, wherein the acid is selected from one or more of the following compounds: maleic acid, maleic anhydride, maleic half-ester, itaconic acid, itaconic half-ester, water-soluble copolymer of maleic acid or maleic anhydride or itaconic acid, wherein the water-soluble copolymer of maleic acid or maleic anhydride or itaconic acid is a copolymer of maleic acid or maleic anhydride or itaconic acid with ethylenically unsaturated compounds or with other unsaturated compounds; wherein the proportion by weight of maleic acid, maleic anhydride, maleic half-ester, itaconic acid, itaconic half-ester, water-soluble copolymer of maleic acid or maleic anhydride or itaconic acid in the acid-containing aqueous solution is less than 5% by weight based on the total weight of the solution, wherein the contacting of the surface with the acid-containing aqueous solution is carried out such that the chromium/iron ratio in the passive layer is increased to a value ≥ 3 and the layer thickness of the passive layer is increased to a value > 4 nm. (i) cleaning the surface; (ii) contacting the surface of the steel with an acid-containing aqueous solution, wherein the acid is selected from one or more of the following compounds: maleic acid, maleic anhydride, maleic half-ester, itaconic acid, itaconic half-ester, water-soluble copolymer of maleic acid or maleic anhydride or itaconic acid, wherein the water-soluble copolymer of maleic acid or maleic anhydride or itaconic acid is a copolymer of maleic acid or maleic anhydride or itaconic acid with ethylenically unsaturated compounds or with other unsaturated compounds; wherein the proportion by weight of maleic acid, maleic anhydride, maleic half-ester, itaconic acid, itaconic half-ester, water-soluble copolymer of maleic acid or maleic anhydride or itaconic acid in the acid-containing aqueous solution is less than 5% by weight based on the total weight of the solution, wherein the contacting of the surface with the acid-containing aqueous solution is carried out such that the chromium/iron ratio in the passive layer is increased to a value ≥ 3 and the layer thickness of the passive layer is increased to a value > 4 nm.
Heating appliance for railway vehicles, comprising at least one heating unit, which forms a load-bearing sandwich structure together with edge profiles (13 to 16) and a core layer, a plurality of heating units and sandwich structures being provided, which in each case form modular constructional units together with a lower end plate, the edge profiles (13 to 16) of each sandwich structure forming a rectangular base frame, the heating unit having a sandwich construction having an upper and lower cover layer (26, 27) and a heating element arranged therebetween, and the constructional units being arranged such that they can be positioned and secured relative to one another in the railway vehicle by means of connecting elements, characterised in that the heating units are received on the upper face of the base frame, and the intermediate space between the lower cover layer of the heating unit and the end plate of the sandwich structure is filled with a core layer made of structural foam.
A method for a Mobility Management Entity for handling user equipment, UE, capability information of a UE in a mobile telecommunications network comprising at least one UE holding UE capabilities and at least one eNodeB, wherein the method comprises the steps of: - receiving, from the eNodeB, a first message (Md) comprising UE capability information of the UE, - storing the received UE capability information, - receiving, from the eNodeB, a second message (Ma) comprising information indicative of that the UE capabilities have changed, - erasing the stored UE capability information, the method being characterised in that: - sending in response to the second message a third message (Mb) associated with the stored UE capability information to the eNodeB, whereby the first message (Md) comprises a value tag indicating the version of the comprised UE capability information and the method comprises the step of: - storing the value tag, and the second message (Ma) comprises the value tag indicating the version of the UE capability information of the UE, and the third message (Mb) comprises the stored UE capability information and the stored value tag. - receiving, from the eNodeB, a first message (Md) comprising UE capability information of the UE, - storing the received UE capability information, - receiving, from the eNodeB, a second message (Ma) comprising information indicative of that the UE capabilities have changed, - erasing the stored UE capability information, - sending in response to the second message a third message (Mb) associated with the stored UE capability information to the eNodeB, whereby the first message (Md) comprises a value tag indicating the version of the comprised UE capability information and the method comprises the step of: - storing the value tag, and the second message (Ma) comprises the value tag indicating the version of the UE capability information of the UE, and the third message (Mb) comprises the stored UE capability information and the stored value tag.
An orthopaedic surgical instrument comprising: a polymer 4-in-1 femoral cutting block having a chamfer cutting slot defined therein, a first metallic planar cutting guide secured within the chamfer cutting slot of the polymer 4-in-1 femoral cutting block, a second metallic planar cutting guide secured within the chamfer cutting slot of the polymer 4-in-1 femoral cutting block, the second metallic planar cutting guide being arranged at an oblique angle relative to the first metallic planar cutting guide, characterised in that the second metallic planar cutting guide is spaced apart from the first metallic cutting guide, and the instrument includes: a first metallic bushing secured within the chamfer cutting slot of the polymer 4-in-1 femoral cutting block, an outer surface of the first metallic bushing being positioned at a lateral end of each of the first and second metallic planar cutting guides, and a second metallic bushing secured within the chamfer cutting slot of the polymer 4-in-1 femoral cutting block, an outer surface of the second metallic bushing being positioned at a medial end of each of the first and second metallic planar cutting guides a polymer 4-in-1 femoral cutting block having a chamfer cutting slot defined therein, a first metallic planar cutting guide secured within the chamfer cutting slot of the polymer 4-in-1 femoral cutting block, a second metallic planar cutting guide secured within the chamfer cutting slot of the polymer 4-in-1 femoral cutting block, the second metallic planar cutting guide being arranged at an oblique angle relative to the first metallic planar cutting guide, characterised in that the second metallic planar cutting guide is spaced apart from the first metallic cutting guide, and the instrument includes: a first metallic bushing secured within the chamfer cutting slot of the polymer 4-in-1 femoral cutting block, an outer surface of the first metallic bushing being positioned at a lateral end of each of the first and second metallic planar cutting guides, and a second metallic bushing secured within the chamfer cutting slot of the polymer 4-in-1 femoral cutting block, an outer surface of the second metallic bushing being positioned at a medial end of each of the first and second metallic planar cutting guides a first metallic bushing secured within the chamfer cutting slot of the polymer 4-in-1 femoral cutting block, an outer surface of the first metallic bushing being positioned at a lateral end of each of the first and second metallic planar cutting guides, and a second metallic bushing secured within the chamfer cutting slot of the polymer 4-in-1 femoral cutting block, an outer surface of the second metallic bushing being positioned at a medial end of each of the first and second metallic planar cutting guides
A system for the analysis of ECG signals comprising: at least one readout channel configured to receive an analogue ECG signal acquired from at least one electrode attached to a body and to extract an analogue measured ECG signal and analogue electrode-skin impedance signals (121, 122); at least one anologue-to-digital-converter ADC, configured to convert those extracted analogue signals at the readout channel into digital signals; a digital adaptive filter unit configured to calculate a digital motion artifact estimate based on said digital signals from the analogue measured ECG signal and the analogue electrode-skin impedance signals; characterized in that the system further comprises: at least one digital-to-analogue-converter DAC configured to convert said digital motion artifact estimate into an analogue motion artifacte estimate signal; and a feedback loop for sending said analogue motion artifact estimate signal back to an analogue ECG readout module within the readout channel configured to deduct said-analogue motion artifact estimate signal from said analogue measured ECG signal. at least one readout channel configured to receive an analogue ECG signal acquired from at least one electrode attached to a body and to extract an analogue measured ECG signal and analogue electrode-skin impedance signals (121, 122); at least one anologue-to-digital-converter ADC, configured to convert those extracted analogue signals at the readout channel into digital signals; a digital adaptive filter unit configured to calculate a digital motion artifact estimate based on said digital signals from the analogue measured ECG signal and the analogue electrode-skin impedance signals; characterized in that the system further comprises: at least one digital-to-analogue-converter DAC configured to convert said digital motion artifact estimate into an analogue motion artifacte estimate signal; and a feedback loop for sending said analogue motion artifact estimate signal back to an analogue ECG readout module within the readout channel configured to deduct said-analogue motion artifact estimate signal from said analogue measured ECG signal. at least one digital-to-analogue-converter DAC configured to convert said digital motion artifact estimate into an analogue motion artifacte estimate signal; and a feedback loop for sending said analogue motion artifact estimate signal back to an analogue ECG readout module within the readout channel configured to deduct said-analogue motion artifact estimate signal from said analogue measured ECG signal.
A method for laser welding a workpiece along a weld line, comprising the steps of: delivering a focused beam of laser radiation to the workpiece, the focused beam having a focused center beam and a concentric focused annular beam, the focused center beam having a smaller diameter than the focused annular beam on a surface of the workpiece exposed to the focused beam; moving the focused beam laterally with respect to the workpiece along the weld line, the center beam having a center processing power (P C) and the annular beam having an annular processing power (P A); reducing power of the annular beam from the annular processing power (P A); stopping the lateral movement of the focused beam with respect to the workpiece when the focused beam reaches an end location on the weld line; increasing power of the center beam from the center processing power; ramping down power of the annular beam at a first annular ramp rate while ramping down power of the center beam at a first center ramp rate; and ramping down power of the annular beam at a second annular ramp rate while ramping down power of the center beam at a second center ramp rate, the second annular ramp rate being less than the first annular ramp rate, and the second center ramp rate being less than the first center ramp rate. delivering a focused beam of laser radiation to the workpiece, the focused beam having a focused center beam and a concentric focused annular beam, the focused center beam having a smaller diameter than the focused annular beam on a surface of the workpiece exposed to the focused beam; moving the focused beam laterally with respect to the workpiece along the weld line, the center beam having a center processing power (P C) and the annular beam having an annular processing power (P A); reducing power of the annular beam from the annular processing power (P A); stopping the lateral movement of the focused beam with respect to the workpiece when the focused beam reaches an end location on the weld line; increasing power of the center beam from the center processing power; ramping down power of the annular beam at a first annular ramp rate while ramping down power of the center beam at a first center ramp rate; and ramping down power of the annular beam at a second annular ramp rate while ramping down power of the center beam at a second center ramp rate, the second annular ramp rate being less than the first annular ramp rate, and the second center ramp rate being less than the first center ramp rate.
A housing for a device, the housing comprising at least a first housing part and a second housing part, which each have at least one holding device (111, 112, 121, 122) for holding a locking element (21, 22) which, in a closed state of the housing, extends at least in some parts along the respective at least one holding device (111, 112, 121, 122) of the two housing parts (11, 12) and securely connects them, characterized in that there is positive engagement between the locking element (21, 22) and a wall of the respective holding device (111, 112, 121, 122) of both housing parts (11, 12), the locking element (21, 22) penetrating the wall at least in sections.
Radio device comprising a radio interface for wirelessly exchanging data with at least one further device, wherein said radio device comprises at least one apparatus comprising at least one reflective surface configured to reflect electromagnetic waves in the millimeter wave range, wherein a reflective response of at least one portion of said reflective surface with respect to said electromagnetic waves is electronically controllable, wherein said apparatus is configured to at least temporarily control said reflective response of said at least one portion of said reflective surface, the radio device comprising at least one of: a) electromechanical actuator for driving a movement of said at least one movable reflective surface portion, b) a reflective element comprising liquid crystal, wherein said radio device is configured to: establish a first communications channel with said at least one further device using said electromagnetic waves, establish a second communications channel with said at least one further device by at least temporarily controlling said reflective response of said at least one portion of said reflective surface, wherein said radio device is configured to wirelessly exchange data with said at least one further device using said first communications channel and said second communications channel.
A process for the manufacture of an acylated polymer composition comprising amylose and/or amylopectin, having a viscosity from between 10 to 200 mPas (35 w % in EtOAc at 25°C), which comprises (a) pre-treating a polymer composition comprising amylose and/or amylopectin with an aqueous phase comprising one additive selected from the group consisting of at least one acid A having a pKa of equal to or less than 4.8 at 25°C and an enzyme, and optionally one or more additives selected from the group comprising at least one salt in combination with at least one polycarboxylic acid, and at least one hydroxycarboxylic acid, (b) reacting the pre-treated polymer composition with an acylating agent to provide an acylated polymer composition comprising amylose and/or amylopectin. and (c) reacting the acylated polymer composition obtained in step (b) with at least one acid A' with a pKa of equal to or less than 4.8 at 25°C, in the presence of water. (a) pre-treating a polymer composition comprising amylose and/or amylopectin with an aqueous phase comprising one additive selected from the group consisting of at least one acid A having a pKa of equal to or less than 4.8 at 25°C and an enzyme, and optionally one or more additives selected from the group comprising at least one salt in combination with at least one polycarboxylic acid, and at least one hydroxycarboxylic acid, (b) reacting the pre-treated polymer composition with an acylating agent to provide an acylated polymer composition comprising amylose and/or amylopectin. and (c) reacting the acylated polymer composition obtained in step (b) with at least one acid A' with a pKa of equal to or less than 4.8 at 25°C, in the presence of water.