mhurhangee/ep-ind-claims huggingface dataset:
An odour trap for an inlet of a floor drain comprising a body, a bottom, and at least one outlet, wherein the odour trap being formed of a guide plate having a discharge aperture from which discharge aperture protrudes a duckbill valve tightly connected to the edges of the discharge aperture, the guide plate being in use installed between the inlet and the bottom and separating the liquid flow coming through the inlet from the liquid flow exiting through the at least one outlet; the duckbill valve comprising an upper lip and a lower lip, which upper lip and lower lip are substantially parallel, and interconnected by their outer edges and settling against each other, the guide plate is connected to an opening in a flank formed in the upper lip of the duckbill valve, whereby the upper lip surrounds the discharge aperture in the guide plate, a mouth being formed at an end of the duckbill valve. the odour trap being formed of a guide plate having a discharge aperture from which discharge aperture protrudes a duckbill valve tightly connected to the edges of the discharge aperture, the guide plate being in use installed between the inlet and the bottom and separating the liquid flow coming through the inlet from the liquid flow exiting through the at least one outlet; the duckbill valve comprising an upper lip and a lower lip, which upper lip and lower lip are substantially parallel, and interconnected by their outer edges and settling against each other, the guide plate is connected to an opening in a flank formed in the upper lip of the duckbill valve, whereby the upper lip surrounds the discharge aperture in the guide plate, a mouth being formed at an end of the duckbill valve.
A robot cleaner, comprising: a cleaner body; a base body forming a bottom part of the cleaner body, the base body is configured to accommodate components of the robot cleaner therein; a first wheel module and a second wheel module installed to be spaced apart from each other, and configured to moveably support the base body; a suction motor module and a battery module disposed between the first and second wheel modules; and a suction nozzle module disposed at a front side of the suction motor module and the battery module, and configured to suck air of a region to be cleaned, characterized by a plurality of module accommodation portions (112a, 112b, 112c, 112d) being formed at the base body and being open towards a lower side of the robot cleaner, and wherein the first wheel module, the second wheel module, the suction motor module, the battery module, and the suction nozzle module are inserted into the module accommodation portions being formed at the base body, respectively, in parallel to each other, from a lower side to an upper side of the base body. a base body forming a bottom part of the cleaner body, the base body is configured to accommodate components of the robot cleaner therein; a first wheel module and a second wheel module installed to be spaced apart from each other, and configured to moveably support the base body; a suction motor module and a battery module disposed between the first and second wheel modules; and a suction nozzle module disposed at a front side of the suction motor module and the battery module, and configured to suck air of a region to be cleaned, characterized by a plurality of module accommodation portions (112a, 112b, 112c, 112d) being formed at the base body and being open towards a lower side of the robot cleaner, and wherein the first wheel module, the second wheel module, the suction motor module, the battery module, and the suction nozzle module are inserted into the module accommodation portions being formed at the base body, respectively, in parallel to each other, from a lower side to an upper side of the base body.
An apparatus comprising: a lens assembly (902, 1002) comprising: a plurality of polymer layers (908, 1006) comprising a first polymer layer and a second polymer layer forming a stack, the first polymer layer (908, 1006) including a lens portion and an extension portion (911, 1008), and the second polymer layer (908, 1006) including a lens portion; at least one rigid spacer (910, 1010) having an opening and sandwiched between the first polymer layer (908, 1006) and the second polymer layer (908, 1006), the extension portion (911, 1008) of the first polymer layer (908, 1006) being mechanically supported on and bonded to the at least one rigid spacer (910, 1010) via a first bonding layer to allow the lens portion of the first polymer layer (908, 1006) to be suspended over the opening and over the lens portion of the second polymer layer (908, 1006); and an image sensor positioned below the lens assembly (902, 1002) and bonded to the lens assembly (902, 1002) via a bonding layer (804, 904) and configured to sense light that passes through the lens portions of the plurality of polymer layers (908, 1006); wherein the lens portions of the plurality of polymer layers (908, 1006) are configured to gather and direct light towards the image sensor. a lens assembly (902, 1002) comprising: a plurality of polymer layers (908, 1006) comprising a first polymer layer and a second polymer layer forming a stack, the first polymer layer (908, 1006) including a lens portion and an extension portion (911, 1008), and the second polymer layer (908, 1006) including a lens portion; at least one rigid spacer (910, 1010) having an opening and sandwiched between the first polymer layer (908, 1006) and the second polymer layer (908, 1006), the extension portion (911, 1008) of the first polymer layer (908, 1006) being mechanically supported on and bonded to the at least one rigid spacer (910, 1010) via a first bonding layer to allow the lens portion of the first polymer layer (908, 1006) to be suspended over the opening and over the lens portion of the second polymer layer (908, 1006); and a plurality of polymer layers (908, 1006) comprising a first polymer layer and a second polymer layer forming a stack, the first polymer layer (908, 1006) including a lens portion and an extension portion (911, 1008), and the second polymer layer (908, 1006) including a lens portion; at least one rigid spacer (910, 1010) having an opening and sandwiched between the first polymer layer (908, 1006) and the second polymer layer (908, 1006), the extension portion (911, 1008) of the first polymer layer (908, 1006) being mechanically supported on and bonded to the at least one rigid spacer (910, 1010) via a first bonding layer to allow the lens portion of the first polymer layer (908, 1006) to be suspended over the opening and over the lens portion of the second polymer layer (908, 1006); and an image sensor positioned below the lens assembly (902, 1002) and bonded to the lens assembly (902, 1002) via a bonding layer (804, 904) and configured to sense light that passes through the lens portions of the plurality of polymer layers (908, 1006);
Glass crushing device consisting of a support and a crushing head which has an opening at the upper surface, for the introduction of bottles, characterized in that said crushing head has a lower opening leading into a removable cartridge collector and in that said crushing head comprises a hollow tilting compartment which has a cut-out for a bottle to pass therethrough and which has on its lower surface a keel for shattering a bottle.
An air cycle machine with a cooling air flow path, the cooling air flow path comprising: an inlet; at least one bearing downstream from the inlet and in fluidic connection with the inlet; an outlet downstream from the at least one bearing and in fluidic connection with the at least one bearing; and an adjustment device downstream from the at least one bearing and in fluidic connection with the at least one bearing and the outlet, the adjustment device configured to vary a flow of cooling air through the flow path by adjusting the cross-sectional area of the flow path. an inlet; at least one bearing downstream from the inlet and in fluidic connection with the inlet; an outlet downstream from the at least one bearing and in fluidic connection with the at least one bearing; and an adjustment device downstream from the at least one bearing and in fluidic connection with the at least one bearing and the outlet, the adjustment device configured to vary a flow of cooling air through the flow path by adjusting the cross-sectional area of the flow path.
A method for monitoring and controlling bulk microbiological water activity in a process stream comprising: a. connecting an apparatus to a process stream, wherein said apparatus comprises a flow cell containing a plurality of openings, wherein at least one opening is a flow cell inlet for fluid drawn from said process stream and at least one opening is a flow cell outlet for fluid exiting said flow cell, a dissolved oxygen probe attached to one of said openings, and a valve associated with said flow cell; b. drawing fluid from said process steam into said flow cell; c. opening the valve of said apparatus to allow fluid to be drawn into said flow cell; d. measuring at least once the DO concentration of said process stream with said DO probe, and wherein prior to each measurement the surface of said DO probe is cleaned; e. closing the valve of said apparatus to prevent fluid from being drawn into said flow cell; f. measuring at least once the DO concentration of the fluid inside said apparatus with said DO probe, and wherein prior to each measurement the surface of said DO probe is cleaned; g. calculating a change in DO, Δ DO, reading between step (d) and step (f); h. correlating at least said Δ DO value in step (g) with bulk (total) microbiological activity in said process stream; and i. controlling the amount of said microbiological activity by adding an effective amount of a treatment containing one or more oxidizing biocides to the process stream and/or an effective amount of a treatment containing one or more non-oxidizing biocides to the process stream. a. connecting an apparatus to a process stream, wherein said apparatus comprises a flow cell containing a plurality of openings, wherein at least one opening is a flow cell inlet for fluid drawn from said process stream and at least one opening is a flow cell outlet for fluid exiting said flow cell, a dissolved oxygen probe attached to one of said openings, and a valve associated with said flow cell; b. drawing fluid from said process steam into said flow cell; c. opening the valve of said apparatus to allow fluid to be drawn into said flow cell; d. measuring at least once the DO concentration of said process stream with said DO probe, and wherein prior to each measurement the surface of said DO probe is cleaned; e. closing the valve of said apparatus to prevent fluid from being drawn into said flow cell; f. measuring at least once the DO concentration of the fluid inside said apparatus with said DO probe, and wherein prior to each measurement the surface of said DO probe is cleaned; g. calculating a change in DO, Δ DO, reading between step (d) and step (f); h. correlating at least said Δ DO value in step (g) with bulk (total) microbiological activity in said process stream; and i. controlling the amount of said microbiological activity by adding an effective amount of a treatment containing one or more oxidizing biocides to the process stream and/or an effective amount of a treatment containing one or more non-oxidizing biocides to the process stream.
A bicycle (1, 51, 61, 81, 91) comprising a frame (3, 53, 63, 83, 93) having a seat-tube, the frame having mounted thereon a front wheel, a rear wheel, a pair of handlebars coupled to the front wheel through a front fork, and a saddle having a seat-post for insertion into the seat-tube, and in which there is provided a detachably mounted drivetrain for releasable engagement of the frame to allow conversion of the bike to and from a balance bicycle and a pedal bicycle, and in which the bicycle frame (3, 53, 63, 83, 93) itself is configurable to provide a frame that is height-adjustable to allow alteration of the height of the seat tube above the ground and reach-adjustable to allow alteration of the distance between the saddle and the handlebars, and in which the frame (3, 53, 63, 93) comprises a two part frame, a first part (3(a), 53(a), 63(a), 93(a)) and a second part (3(b), 53(b), 63(b), 93(b)), and in which the second part is adjustably mounted on the first part to allow alteration of the height of the seat tube above the ground and alteration of the distance between the saddle and the handlebars, and in which the first part comprises a front frame part (3(a), 93(a)) having a head tube and the second part comprises a rear frame part (3(b), 93(b)) having a pair of chainstays and the seat-tube, and in which the rear frame part is rotatable relative to the front frame part.
An RFID reading device consisting of a reading unit and an antenna arrangement which is coupled to the reading unit and of which at least one emitter element is switchable between at least three polarisation planes, of which two polarisation planes point orthogonally relative to one another, wherein each polarisation plane is assigned to at least one separate port via which, if one of the available polarisation planes is switchably selected, the reading unit is connected to the at least one emitter element and the other ports (P2, P3, P4) which are respectively not connected to the reading unit are open, i.e. not terminated by the terminating resistors, characterised in that the antenna arrangement comprises ports (P1, P2) which have the same impedance as the reading unit and a feed line which connects the reading unit to one of the ports (P1, P2), and comprises additional ports (P3, P4), which have twice as much impedance as the reading unit and a feed line which connects the reading unit to one of the ports (P3, P4), and of which two of the ports (P3, P4) with twice the impedance can be connected to each other by a phasing line with an electrical length of one quarter of the operating wavelength with which the at least one emitter element is also in resonance, and of which in each case one of the ports (P3; P4) can be connected to the reading unit per polarization plane.
A friction lining for torque transmission, comprising a substrate, a binder and frictionally active fillers (18, 20), wherein the binder has completely saturated the substrate, and wherein the fillers (18, 20) are deposited on the substrate in such a way that smaller filler particles are located to an increased degree on the surface of the substrate and in part have penetrated into the substrate, the frictionally active fillers (18, 20) being predominantly part of two different groups of particle sizes and the filler particles of the first group having a particle size in the range of from 2 to 50 μm and the filler particles of the second group having a particle size in the range of from 90 to 800 μm.
A method of transmitting data in a wireless communication system, the method comprising: configuring a subframe comprising a control region in which scheduling information is transmitted to a first User Equipment, UE, and a data region in which first data is transmitted to the first UE; and transmitting the first data for a first UE and second data for a second UE in the subframe, wherein the subframe comprises a plurality of Orthogonal Frequency Division Multiplexing, OFDM, symbols in a time domain, wherein the control region comprises first N, N being a natural number between 1 and 4, OFDM symbols in the subframe, and the data region comprises OFDM symbols other than the N OFDM symbols in the subframe, wherein the first data is transmitted in the data region and resources in which the first data is transmitted are indicated by scheduling information transmitted in the control region, and characterized in that the second data is transmitted in the control region and the second data has no corresponding scheduling information in the control region. configuring a subframe comprising a control region in which scheduling information is transmitted to a first User Equipment, UE, and a data region in which first data is transmitted to the first UE; and transmitting the first data for a first UE and second data for a second UE in the subframe, wherein the subframe comprises a plurality of Orthogonal Frequency Division Multiplexing, OFDM, symbols in a time domain, wherein the control region comprises first N, N being a natural number between 1 and 4, OFDM symbols in the subframe, and the data region comprises OFDM symbols other than the N OFDM symbols in the subframe, wherein the first data is transmitted in the data region and resources in which the first data is transmitted are indicated by scheduling information transmitted in the control region, and characterized in that the second data is transmitted in the control region and the second data has no corresponding scheduling information in the control region.
A scroll compressor (10; 40) used as a vacuum pump, comprising a scroll pumping mechanism comprising two co-operating scrolls (14, 16) comprising a fixed scroll and an orbiting scroll, and an axially extending shaft having an eccentric shaft portion which is connected for causing the orbiting scroll to orbit relative to the fixed scroll, the scrolls being mounted within a pump housing so that on relative orbital movement of the scrolls about an axis of the shaft fluid is pumped from a pump inlet in the pump housing to a pump outlet in the pump housing, wherein the vacuum pump further comprises a filter located within the pump housing along a fluid flow path between the pump inlet and the scroll pumping mechanism for resisting the passage of particulates upstream of the compressor, characterized in that the filter is generally cylindrical and extends between 270° and 360° about the axis of the shaft.
A method for designing a virtual 3D model (317, 417, 517) of a dental restoration comprising: obtaining a digital 3D representation of a set of teeth of a patient, said digital 3D representation comprising a section corresponding to a target site; determining an insertion path (313, 413, 513) for the dental restoration to the target site; determining a limiting volume of the digital 3D representation, where the limiting volume comprises a boundary (3161, 3162, 3163, 3164) that provides an indication of a space available for the dental restoration when moving along the insertion path; and designing the virtual 3D model of the dental restoration such that the virtual 3D model is confined within the limiting volume. obtaining a digital 3D representation of a set of teeth of a patient, said digital 3D representation comprising a section corresponding to a target site; determining an insertion path (313, 413, 513) for the dental restoration to the target site; determining a limiting volume of the digital 3D representation, where the limiting volume comprises a boundary (3161, 3162, 3163, 3164) that provides an indication of a space available for the dental restoration when moving along the insertion path; and designing the virtual 3D model of the dental restoration such that the virtual 3D model is confined within the limiting volume.
Aramid paper suitable for use as substrate in electronic applications which has a density of 0.20-0.65 g/cm3 and a grammage of 30-280 g/m2, which paper comprises 10-40 wt.% of aramid shortcut with a linear density of 2.6 dtex or lower and a length of 0.5-25 mm, 10-80 wt.% of aramid fibrid, and 10-80 wt.% aramid pulp, wherein the aramid shortcut comprises at least 70 wt.% para-aramid shortcut and the aramid fibrid comprises at least 70 wt.% para-aramid fibrid.
A method at a storage service subject to synchronization of files with a remote device, the files being initially stored at the storage device and at the remote device, to retain synchronized content that has been deleted at the remote device, the method comprising: providing to be displayed a selectable feature (310, 312, 330, 332, 360, 362) to retain content locally deleted from the remote device at the storage service, wherein the selectable feature is a selectable feature of one or more of the remote device and a folder on the remote device containing the content; in response to detecting a selection of the feature, associating the remote device or the folder with a tag at the storage service indicating that the content of the remote device or the folder which is detected at the remote device is to be retained at the storage service; detecting a deletion of the content on the remote device; and automatically retaining the content at the storage service if the tag has been associated with the remote device or the folder containing the content, including preventing the retained content from being downloaded and stored locally on the remote device when content at the storage service and the remote device are synchronized. providing to be displayed a selectable feature (310, 312, 330, 332, 360, 362) to retain content locally deleted from the remote device at the storage service, wherein the selectable feature is a selectable feature of one or more of the remote device and a folder on the remote device containing the content; in response to detecting a selection of the feature, associating the remote device or the folder with a tag at the storage service indicating that the content of the remote device or the folder which is detected at the remote device is to be retained at the storage service; detecting a deletion of the content on the remote device; and automatically retaining the content at the storage service if the tag has been associated with the remote device or the folder containing the content, including preventing the retained content from being downloaded and stored locally on the remote device when content at the storage service and the remote device are synchronized.